mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for examining a sample which can be excited by means of electromagnetic radiation, comprising: - a first dichroic beam splitter comprising a first and a second prism (03a, 03b) which are connected to one another on the base surfaces thereof, and a dichroic layer arranged between the base surfaces of the two prisms (03a, 03b), wherein an entry surface of the first prism encloses an angle (β) with the dichroic layer; - a light source for providing the electromagnetic radiation suitable for excitation of the sample, wherein the radiation is coupled into the entry surface of the first prism and wherein a part of the radiation is reflected on the dichroic layer in the direction of the sample, which is positioned downstream of an exit surface of the first prism; - a detector for detecting electromagnetic radiation emitted by the sample, passed through the beam splitter and leaving the latter on a measurement surface, characterized in that the entry surface of the first prism encloses an angle (β) in the range from 10° to <40° with the dichroic layer. - a first dichroic beam splitter comprising a first and a second prism (03a, 03b) which are connected to one another on the base surfaces thereof, and a dichroic layer arranged between the base surfaces of the two prisms (03a, 03b), wherein an entry surface of the first prism encloses an angle (β) with the dichroic layer; - a light source for providing the electromagnetic radiation suitable for excitation of the sample, wherein the radiation is coupled into the entry surface of the first prism and wherein a part of the radiation is reflected on the dichroic layer in the direction of the sample, which is positioned downstream of an exit surface of the first prism; - a detector for detecting electromagnetic radiation emitted by the sample, passed through the beam splitter and leaving the latter on a measurement surface,
An adenoviral vector other than AdHu5, suitable for driving expression of a heterologous transgene in a host cell, comprising an adenoviral genome, wherein the E40rf4, E40rf6 and E40rf6/7 coding regions have been replaced with heterologous AdHu5 E40rf4, E40rf6 and E40rf6/7 coding regions, whilst comprising the native E40rfl, E40rf2 and E40rf3 coding regions, and wherein said adenoviral genome lacks an E1 and an E3 locus.
A smart device comprising a configurable internal analog front end (36,100), a software application, and at least one port (22,24,26) through which the output of an external sensor (34,76,84,88) that transmits and/or receives data can be connected to the AFE (36,100), wherein: a) the smart device is a mobile communication device, which is a small computer that is adapted to be connected to the internet and to be carried by a consumer; b) components of the configurable AFE (36,100) are configurable to digitize the signals from different types of external sensors (34,76,84,88); c) the AFE (36,100) is an internal component of the smart device and at least some of the hardware components (42,44,46,48,50,52,56,60,62,64,68,70,72,74,78,80,82,86,90a,90b,92) of the AFE (36,100) are integrated with the application processor of the smart device in a single application-specific integrated circuit [ASIC]; the smart device characterized in that connection of an external sensor (34,76,84,88) to the configurable AFE (36,100) initiates execution of the software application on the smart device, wherein the application is programmed to: (i) identify the type of the external sensor (34,76,84,88), (ii) select appropriate components (42,44,46,48,50,52,56,60,62,64,68,70,72,74,78,80,82,86,90a,90b,92) of the configurable AFE (36,100), and (iii) to arrange connections between them to form an AFE circuit suitable for the external sensor (34,76,84,88). a) the smart device is a mobile communication device, which is a small computer that is adapted to be connected to the internet and to be carried by a consumer; b) components of the configurable AFE (36,100) are configurable to digitize the signals from different types of external sensors (34,76,84,88); c) the AFE (36,100) is an internal component of the smart device and at least some of the hardware components (42,44,46,48,50,52,56,60,62,64,68,70,72,74,78,80,82,86,90a,90b,92) of the AFE (36,100) are integrated with the application processor of the smart device in a single application-specific integrated circuit [ASIC];
Composition for the publication gravure printing, comprising toluene as organic solvent, and as one binder component a copolymer which is the reaction product of 95-50 wt.-% styrene or α-methyl styrene, 5-20 wt.-% of a monomer selected from the group consisting of a tertiary-amine containing (meth)acrylate and acrylic acid, and 0.5-40 wt.-% of a compound comprising at least 2 ethylenic unsaturated moieties, wherein the sum of all indicated percentages is 100%.
Method for operating a steam boiler, which has an interior space, a supply line for supplying liquid, a steam outlet, a discharge line for discharging liquid from the steam boiler and a boiler control, characterized by an analysing device, with which the recording, processing and assessment of at least one state parameter is performed by means of at least one rule stored in the analysing device, and comprising the following step of the analysing device: n) determining a contamination of the boiler, by ascertaining a relationship between a burner-load presetting or response message and an exhaust gas temperature of a combustion device that supplies heat to the steam boiler. n) determining a contamination of the boiler, by ascertaining a relationship between a burner-load presetting or response message and an exhaust gas temperature of a combustion device that supplies heat to the steam boiler.
A wind turbine rotor blade having • an electric heating device for heating a heatable surface region which extends over a longitudinal section of the wind turbine rotor blade, wherein the electric heating device has a blade-tip-side end, a blade-root-side end and two profile-trailing-edge-side edges (30, 31), and • two outer electric conductors (32, 34) which are connected to the electric heating device along the profile-trailing-edge-side edges (30, 31) and via which the electric heating device can be supplied with a heating current, characterized by • at least one central electric conductor which is connected to the electric heating device at a distance from the two profile-trailing-edge-side edges (30, 31) in such a way that the electric heating device is divided by the at least one central electric conductor into at least two partial regions (56, 58, 60) which each extend over the longitudinal section and can be supplied with an electric heating current separately from one another via two of the conductors (32, 34, 38). • an electric heating device for heating a heatable surface region which extends over a longitudinal section of the wind turbine rotor blade, wherein the electric heating device has a blade-tip-side end, a blade-root-side end and two profile-trailing-edge-side edges (30, 31), and • two outer electric conductors (32, 34) which are connected to the electric heating device along the profile-trailing-edge-side edges (30, 31) and via which the electric heating device can be supplied with a heating current, characterized by • at least one central electric conductor which is connected to the electric heating device at a distance from the two profile-trailing-edge-side edges (30, 31) in such a way that the electric heating device is divided by the at least one central electric conductor into at least two partial regions (56, 58, 60) which each extend over the longitudinal section and can be supplied with an electric heating current separately from one another via two of the conductors (32, 34, 38).
A lighting fixture, comprising a compartment, provided with a first opening, and accommodating a lighting body comprising: a first reflector, arranged in an offset position with respect to the middle axis of said lighting fixture, and in turn comprising an upper part, adapted to accommodate lighting sources, a lateral surface comprising a first flank and a second flank, said first flank having an inclination angle γ with respect to said middle axis, which is smaller than the corresponding inclination angle δ of said second flank with respect to said middle axis, and a third opening lying on a plane, inclined with respect to the plane containing said first opening by a certain angle α; a second reflector arranged beneath said first reflector and comprising a surface, arranged on the same side as said first flank and lying on a plane inclined by a certain angle β with respect to the middle axis of said lighting fixture; an optical refracting element arranged between said first reflector and said second reflector and substantially having the same inclination as said third opening characterized in that said second reflector has the lower edge projecting from said first opening of said compartment and in that said optical refractor comprises two diffusing screens, the first screen, of the micro-prism or micro-lined type being adapted to direct the light towards the wall to be lighted while the second screen, of the diffusing or glazed type, being adapted to uniform the light emission so as to prevent light spots and/or strips on the wall to be lighted and complete the light mixing effect which prevents the direct view of the light sources.
Flap system for a building, which is designed in particular as a ventilation device, sun screen, insulation protection, privacy screen and/or weather protection, comprising - a support arm, by means of which a support axis is mounted in a manner that is translationally fixed and rotatable about the longitudinal axis thereof; - a flap that is connected for conjoint rotation with the support axis and thereby pivotable, wherein the support axis is arranged between a top end and a bottom end of the flap; - a frame structure being used as a transmission which is connected to the flap; - a driver unit which is mounted to move in a translational manner in the vertical direction of the flap system and which is connected in an articulated manner by means of a compensating element to the frame structure so that a translational movement of the driver unit causes the flap to pivot; - a drive device for moving the driver unit. - a support arm, by means of which a support axis is mounted in a manner that is translationally fixed and rotatable about the longitudinal axis thereof; - a flap that is connected for conjoint rotation with the support axis and thereby pivotable, wherein the support axis is arranged between a top end and a bottom end of the flap; - a frame structure being used as a transmission which is connected to the flap; - a driver unit which is mounted to move in a translational manner in the vertical direction of the flap system and which is connected in an articulated manner by means of a compensating element to the frame structure so that a translational movement of the driver unit causes the flap to pivot; - a drive device for moving the driver unit.
A method of forming a segmented ceramic spray coating on a substrate, comprising: providing at least first and second heat sources disposed proximate to a substrate; depositing a quantity of a first material into a heat stream of said first heat source and onto a deposition area of a surface of said substrate to form a first material layer; while said substrate and said two or more heat sources are moving relative to one another, applying the heat stream of said second heat source to a thermal gradient zone located on a surface of said first material layer where deposition is about to take place to preheat and expand said material before said deposition; while said substrate and said two or more heat sources are moving relative to one another, depositing one or more quantities of ceramic material into said heat stream in a direction which is opposite to the movement direction of the substrate relative to the two or more heat sources and upon said pre-heated layer to form one or more layers of ceramic material; and cooling said one or more layers of ceramic material to promote vertical crack propagation therein, wherein said first and second heat sources are arranged such that their respective heat streams overlap on the surface of said substrate. providing at least first and second heat sources disposed proximate to a substrate; depositing a quantity of a first material into a heat stream of said first heat source and onto a deposition area of a surface of said substrate to form a first material layer; while said substrate and said two or more heat sources are moving relative to one another, applying the heat stream of said second heat source to a thermal gradient zone located on a surface of said first material layer where deposition is about to take place to preheat and expand said material before said deposition; while said substrate and said two or more heat sources are moving relative to one another, depositing one or more quantities of ceramic material into said heat stream in a direction which is opposite to the movement direction of the substrate relative to the two or more heat sources and upon said pre-heated layer to form one or more layers of ceramic material; and cooling said one or more layers of ceramic material to promote vertical crack propagation therein,
A cell culture article, comprising: a substrate comprising a polygalacturonic acid compound selected from at least one of: pectic acid; partially esterified pectic acid, or salts thereof; and an adhesion polymer on the surface of the polygalacturonic acid compound. pectic acid; partially esterified pectic acid, or salts thereof; and an adhesion polymer on the surface of the polygalacturonic acid compound.
A base station handover method based on a motion status of a mobile device, performed by a base station, a mobile device or a mobile service switching center, comprising: obtaining a current location and a motion status of a mobile device; predicting, based on the current location and the motion status of the mobile device, duration from a current moment to a moment when a base station that serves the mobile device completes handover from a first base station to a second base station, wherein the first base station is a base station that currently serves the mobile device, and the second base station is a next base station that serves the mobile device, and the motion status comprises at least a combination of a direction, a speed and an acceleration of the mobile device; and after the mobile device maintains a first communication connection to the first base station and establishes a second communication connection to the second base station, initiating the handover from the first base station to the second base station when the duration is reduced to a set threshold; wherein the method further comprising: setting the threshold based on an assumption that the mobile device has established the second communication connection to the second base station, and a required time from the initiating the handover from the first base station to the second base station to the completing the handover from the first base station to the second base station. obtaining a current location and a motion status of a mobile device; predicting, based on the current location and the motion status of the mobile device, duration from a current moment to a moment when a base station that serves the mobile device completes handover from a first base station to a second base station, wherein the first base station is a base station that currently serves the mobile device, and the second base station is a next base station that serves the mobile device, and the motion status comprises at least a combination of a direction, a speed and an acceleration of the mobile device; and after the mobile device maintains a first communication connection to the first base station and establishes a second communication connection to the second base station, initiating the handover from the first base station to the second base station when the duration is reduced to a set threshold; wherein the method further comprising: setting the threshold based on an assumption that the mobile device has established the second communication connection to the second base station, and a required time from the initiating the handover from the first base station to the second base station to the completing the handover from the first base station to the second base station.
A semiconductor module radiator plate fabrication method comprising: soldering a plurality of insulating substrates (1, 2) of determined different shapes to determined positions on a first side of a flat radiator plate for data acquisition, wherein a convex curve is formed on the first side of the radiator plate as a result of soldering; measuring the convex curve; obtaining a first concave curve by reversing the measured convex curve; characterized by further comprising: specifying a desired second concave curve on the first side of a radiator plate after soldering, a bottom of the desired second concave curve being positioned under a clearance between said determined positions of the plurality of insulating substrates; adding the first concave curve and the second concave curve to calculate a third concave curve; and forming the third concave curve on a flat plate to form a radiator plate before soldering. soldering a plurality of insulating substrates (1, 2) of determined different shapes to determined positions on a first side of a flat radiator plate for data acquisition, wherein a convex curve is formed on the first side of the radiator plate as a result of soldering; measuring the convex curve; obtaining a first concave curve by reversing the measured convex curve; characterized by further comprising: specifying a desired second concave curve on the first side of a radiator plate after soldering, a bottom of the desired second concave curve being positioned under a clearance between said determined positions of the plurality of insulating substrates; adding the first concave curve and the second concave curve to calculate a third concave curve; and forming the third concave curve on a flat plate to form a radiator plate before soldering. specifying a desired second concave curve on the first side of a radiator plate after soldering, a bottom of the desired second concave curve being positioned under a clearance between said determined positions of the plurality of insulating substrates; adding the first concave curve and the second concave curve to calculate a third concave curve; and forming the third concave curve on a flat plate to form a radiator plate before soldering.
A base station device comprising a transmission processing unit (101, 103, 107) configured to transmit first control information including information specific to a terminal group to the terminal group including one or more terminal devices, and transmit second control information to the terminal group on a basis of the information specific to the terminal group, wherein the information specific to the terminal group is information specific to a beam that is receivable for the plurality of terminal devices belonging to the terminal group and that is an index of a synchronization signal block transmitted by using the beam.
A method of managing permission and authorization for actions and information access on a portable electronic device, comprising: detecting an attempt to access the portable electronic device; determining (320, 325) whether usage characteristics associated with the detected attempt conform with a usage profile of the portable electronic device, the usage profile including one or more pre-defined usages of the portable electronic device, each pre-defined usage associated with a location characteristic of the portable electronic device; permitting access to the portable electronic device if the usage characteristics are determined to conform with the usage profile; and further comprising: entering (100, 305) a learn mode, the learn mode permitting access to the portable electronic device and bypassing the determining and permitting steps; and adding (110, 310) usage characteristics of the portable electronic device to the usage profile while the portable electronic device remains in the learn mode. detecting an attempt to access the portable electronic device; determining (320, 325) whether usage characteristics associated with the detected attempt conform with a usage profile of the portable electronic device, the usage profile including one or more pre-defined usages of the portable electronic device, each pre-defined usage associated with a location characteristic of the portable electronic device; permitting access to the portable electronic device if the usage characteristics are determined to conform with the usage profile; and entering (100, 305) a learn mode, the learn mode permitting access to the portable electronic device and bypassing the determining and permitting steps; and adding (110, 310) usage characteristics of the portable electronic device to the usage profile while the portable electronic device remains in the learn mode.
A design method for the production of long type railway carriages with different seating capacity comprising: - definition of a basic type of a long type railway carriage with a maximum number of seats and a permitted wheel load; - specification of a maximum length of the basic type of the long type railway carriage and also of a seat divider; - designing a vehicle body including support structures for the basic type of the long type railway carriage, wherein the vehicle body comprises a basic segment, which is designed to receive a plurality of rows of seats corresponding to the seat divider, and at least one window segment to lengthen the basic segment, wherein the length of a window segment roughly matches the seat divider; - determining the required cross section and strength layout of the support structures for the vehicle body of the basic type of the long type railway carriage; and - designing, i.e. drafting, of a railway carriage (100, 101, 102) as a whole in at least two different length variants, while retaining the cross section and the strength layout of the vehicle body and the support structures of the basic type of the long type railway carriage, wherein during designing of the shortened railway carriage (101, 102) the length of the vehicle body is reduced by one or two window segments, and - wherein the design, i.e. the draft, of the body of the railway carriage is modular, whereas the actual production of the railway carriage can take place independently of modules. - definition of a basic type of a long type railway carriage with a maximum number of seats and a permitted wheel load; - specification of a maximum length of the basic type of the long type railway carriage and also of a seat divider; - designing a vehicle body including support structures for the basic type of the long type railway carriage, wherein the vehicle body comprises a basic segment, which is designed to receive a plurality of rows of seats corresponding to the seat divider, and at least one window segment to lengthen the basic segment, wherein the length of a window segment roughly matches the seat divider; - determining the required cross section and strength layout of the support structures for the vehicle body of the basic type of the long type railway carriage; and - designing, i.e. drafting, of a railway carriage (100, 101, 102) as a whole in at least two different length variants, while retaining the cross section and the strength layout of the vehicle body and the support structures of the basic type of the long type railway carriage, wherein during designing of the shortened railway carriage (101, 102) the length of the vehicle body is reduced by one or two window segments, and - wherein the design, i.e. the draft, of the body of the railway carriage is modular, whereas the actual production of the railway carriage can take place independently of modules.