mhurhangee/ep-ind-claims huggingface dataset:
A wireless instrument area network node, comprising: a cover; a base plate fastened to the cover, the base plate and the cover forming a housing for the node; node control circuitry disposed within the housing, the node control circuitry operable to control operation of the node; and a deflection detector mounted on the base plate within the housing, the deflection detector configured to provide an input to the node control circuitry in response to a user-provided force being applied to the housing; wherein the node is configured to perform a predefined node operation in response to the node control circuitry receiving an input from the deflection detector, characterized in that the deflection detector is a microswitch detection deflector, the wireless instrument area network node further comprises a mounting platform attached to the base plate, wherein the microswitch detection deflector is secured to the mounting platform that has a mounting slot formed therein having a size and shape to receive the microswitch detection deflector and is configured to serve as a carrier for electronics and other components of the node, allowing them to be installed within the housing by attaching the mounting platform to the base plate. a cover; a base plate fastened to the cover, the base plate and the cover forming a housing for the node; node control circuitry disposed within the housing, the node control circuitry operable to control operation of the node; and a deflection detector mounted on the base plate within the housing, the deflection detector configured to provide an input to the node control circuitry in response to a user-provided force being applied to the housing; wherein the node is configured to perform a predefined node operation in response to the node control circuitry receiving an input from the deflection detector, characterized in that the deflection detector is a microswitch detection deflector, the wireless instrument area network node further comprises a mounting platform attached to the base plate, wherein the microswitch detection deflector is secured to the mounting platform that has a mounting slot formed therein having a size and shape to receive the microswitch detection deflector and is configured to serve as a carrier for electronics and other components of the node, allowing them to be installed within the housing by attaching the mounting platform to the base plate.
A perforating blade strip for creating perforation lines transversely to the transport direction of web-shaped or sheet-shaped substrates, with a perforating blade strip length L, which is limited by two outer edges, wherein at least one longitudinal edge is formed as perforation edge, wherein teeth, which are located next to one another and which are separated from one another by means of recesses of a respective recess width (B1, B(x), B2), are formed on the at least one perforation edge, and wherein the perforating blade strip is designed essentially symmetrically to a perforating blade strip center, which runs approximately in the middle of the perforation edge and perpendicular to the perforation edge, characterized in that the perforating blade strip comprises an inner area with a width of 2a centrally to the perforating blade strip middle, as well as two outer areas adjoining the inner area, and wherein each outer area extends up to a boundary area, each of which has a width y from each of the outer edges of the perforating blade strip, wherein a first recess width B1 is constant in the inner area and a second recess width B2 is constant in the boundary areas, and wherein the recess width B(x) increases in the two outer areas with increasing spacing X from the inner area.
An isolated crystalline form of Compound 3: wherein: - said crystalline form is Form A and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least one 2theta values selected from 2.6±0.4°, 3.6±0.4°,and 3.8±0.4°; or - said crystalline form is Form B and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least three 2theta values selected from 16.2+0.4°, 15.7±0.4°, 4.5±0.4°, 22.6±0.4°, 17.4±0.4°, 22.0±0.4°, 8.3±0.4°, 16.1±0.4°, 21.1±0.4°, 18.7±0.4°, 18.3±0.4°, 23.9+0.4°, and 27.5±0.4°; or - said crystalline form is Form M and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least three 2theta values selected from 15.0±0.4°, 7.5±0.4°, 23.8±0.4°, 7.2±0.4°, 19.1±0.4°, 5.2±0.4°, 8.3+0.4°, 26.2±0.4°, 22.8±0.4°, 21.7±0.4°, and 24.9±0.4°. - said crystalline form is Form A and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least one 2theta values selected from 2.6±0.4°, 3.6±0.4°,and 3.8±0.4°; or - said crystalline form is Form B and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least three 2theta values selected from 16.2+0.4°, 15.7±0.4°, 4.5±0.4°, 22.6±0.4°, 17.4±0.4°, 22.0±0.4°, 8.3±0.4°, 16.1±0.4°, 21.1±0.4°, 18.7±0.4°, 18.3±0.4°, 23.9+0.4°, and 27.5±0.4°; or - said crystalline form is Form M and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least three 2theta values selected from 15.0±0.4°, 7.5±0.4°, 23.8±0.4°, 7.2±0.4°, 19.1±0.4°, 5.2±0.4°, 8.3+0.4°, 26.2±0.4°, 22.8±0.4°, 21.7±0.4°, and 24.9±0.4°.
A fuel injection control device that controls behavior of a fuel injection valve by detecting an injection characteristic of the fuel injection valve from physical quantity data relating to driving of the fuel injection valve, the fuel injection control device (20; 30) comprising: an input part (23; 33) to input the physical quantity data; an A/D conversion part (221; 321) that performs A/D conversion on the physical quantity data at a conversion timing having a predetermined time interval to acquire time series data; a detection part that detects a singular point with respect to a characteristic of the fuel injection valve from the time series data; and a variable control part that variably controls an input timing of the input part or a conversion timing of the A/D conversion part such that the conversion timing for the physical quantity data is shifted, wherein the A/D conversion part (221; 321) acquires a plurality of time series data by performing, at the conversion timing, A/D conversion on a plurality of physical quantity data input at an input timing before change and an input timing after change by the variable control part, or by performing A/D conversion on the physical quantity data at a conversion timing before change and at a conversion timing after change by the variable control part, and the detection part detects the singular point based on the plurality of time series data. an input part (23; 33) to input the physical quantity data; an A/D conversion part (221; 321) that performs A/D conversion on the physical quantity data at a conversion timing having a predetermined time interval to acquire time series data; a detection part that detects a singular point with respect to a characteristic of the fuel injection valve from the time series data; and a variable control part that variably controls an input timing of the input part or a conversion timing of the A/D conversion part such that the conversion timing for the physical quantity data is shifted, wherein the A/D conversion part (221; 321) acquires a plurality of time series data by performing, at the conversion timing, A/D conversion on a plurality of physical quantity data input at an input timing before change and an input timing after change by the variable control part, or by performing A/D conversion on the physical quantity data at a conversion timing before change and at a conversion timing after change by the variable control part, and the detection part detects the singular point based on the plurality of time series data.
Method for operating an electric vehicle with a range extender, whereby this electric vehicle comprises - an electric propulsion motor, - an electricity generating propulsion motor, - an electromechanical energy converter and - an electrical energy storage device, whereby the electricity generating propulsion motor is intended to drive the electromechanical energy converter for generating electrical energy, and, whereby the electric propulsion motor drives the electric vehicle, whereby the state of charge of the electrical energy storage is located between a lower and an upper threshold value and is substantially continuously reduced by movement of the electric vehicle in the plain with constant travelling velocity, whereby the actual state of charge of the electrical energy storage device is detected and this state of charge is compared with a threshold value for the state of charge, whereby this threshold value lies above the lower threshold value, and the electricity generating propulsion motor for generating electrical energy is used, if the detected state of charge reaches or rather falls below this threshold value, characterised in that the decrease of the state of charge is reduced by this energy generation and the threshold for the state of charge lies below of the half capacity of the electrical energy storage, closer to the lower threshold value compared to this half capacity. - an electric propulsion motor, - an electricity generating propulsion motor, - an electromechanical energy converter and - an electrical energy storage device,
A method for providing information on broadcast programs, comprising: receiving and storing information on a broadcast program guide, the broadcast program guide comprising first program information including program information of currently viewed broadcast program of a channel and second program information including information of a plurality of broadcast programs to be subsequently broadcasted in the channel; displaying the currently viewed broadcast program of the channel in the screen and displaying the first program information and the second program information in a region of a screen; and displaying a start and an end time of the first program information and the second program information in the region of the screen or displaying a current time in the region of the screen, wherein the region occupies only a small part of the screen, wherein the displayed second program information includes first data on only one program that is to be broadcasted subsequent to the currently viewed broadcast program of the channel, wherein at least one arrow to navigate the second program information is displayed in the region of the screen, and wherein, when a key signal selecting an arrow of the at least one arrow is received, the first data is replaced with second data on a next broadcast program in the second program information and the replaced second data is displayed with the first program information. receiving and storing information on a broadcast program guide, the broadcast program guide comprising first program information including program information of currently viewed broadcast program of a channel and second program information including information of a plurality of broadcast programs to be subsequently broadcasted in the channel; displaying the currently viewed broadcast program of the channel in the screen and displaying the first program information and the second program information in a region of a screen; and displaying a start and an end time of the first program information and the second program information in the region of the screen or displaying a current time in the region of the screen, wherein the region occupies only a small part of the screen, wherein the displayed second program information includes first data on only one program that is to be broadcasted subsequent to the currently viewed broadcast program of the channel, wherein at least one arrow to navigate the second program information is displayed in the region of the screen, and wherein, when a key signal selecting an arrow of the at least one arrow is received, the first data is replaced with second data on a next broadcast program in the second program information and the replaced second data is displayed with the first program information.
Hydraulic machine comprising a housing, a working section and a control section, wherein the control section comprises a spool arranged in the housing rotatably about an axis of rotation and a distributor plate is arranged between the control section and the working section, wherein the spool comprises a hollow surrounded by a wall and a front face of the wall rests in a contact area against the distributor plate, characterized in that at least one groove is provided in the contact area, the groove connecting the hollow and an outer diameter of the spool.
A printing apparatus for performing inkjet printing on a medium, comprising: an inkjet head for ejecting ink drops toward the medium; a main scan driver for driving the inkjet head to perform main scan operations in a main scan direction; a sub scan driver for relatively moving the inkjet head and the medium in a sub scan direction perpendicular to the main scan direction; and a controller for controlling ejection of ink drops from the inkjet head, and driving of the main scan driver and the sub scan driver, wherein the controller repeats a predetermined number of printing passes of ejecting ink drops from the inkjet head while moving the inkjet head in the main scan direction, and characterized in that the controller is configured to control ink drop ejection on a basis of mask data sets for designating pixels to be subjected to ink drop ejection, such that spatial frequencies of an arrangement of ink dots which are formed on the medium during a first printing pass are lower than spatial frequencies of an arrangement of ink dots which are formed on the medium during a second printing pass later than the first printing pass. an inkjet head for ejecting ink drops toward the medium; a main scan driver for driving the inkjet head to perform main scan operations in a main scan direction; a sub scan driver for relatively moving the inkjet head and the medium in a sub scan direction perpendicular to the main scan direction; and a controller for controlling ejection of ink drops from the inkjet head, and driving of the main scan driver and the sub scan driver, wherein the controller repeats a predetermined number of printing passes of ejecting ink drops from the inkjet head while moving the inkjet head in the main scan direction, and characterized in that the controller is configured to control ink drop ejection on a basis of mask data sets for designating pixels to be subjected to ink drop ejection, such that spatial frequencies of an arrangement of ink dots which are formed on the medium during a first printing pass are lower than spatial frequencies of an arrangement of ink dots which are formed on the medium during a second printing pass later than the first printing pass.
Method for controlling a temperature of a power converter of an automobile vehicle, the converter connecting an electrical network and a first inverter of an electric motor of the automobile vehicle, the electric motor being coupled, via a first coupling device, to at least one of the wheels (210,220) of the vehicle automobile so as to move the automobile vehicle, the automobile vehicle comprising a system for cooling a plurality of elements including the converter and the first inverter, the control method comprising a comparison of a current value (Tc) of a temperature of one of the elements of the plurality of elements cooled by the cooling system with a value (T 1,T 2) threshold, and, when the current value (Tc) of the temperature is greater than the value (T 1,T 2) threshold, a reduction of a work of the motorization electric moving the automobile vehicle compensated by a work of a second motor moving the automobile vehicle, the control method being characterized in that the compensation of the reduction in work comprises a forced coupling (F F) of a second device for coupling the second motorization to at least one of the wheels (210,220) of the automobile vehicle.
Aircraft seat device, with a seat and with a footrest device comprising at least one carrier structure and a foot and/or leg support element which is connected to the seat via the carrier structure, which a passenger may put his leg or his foot into, the footrest device being configured to provide a leg and/or foot support for a further seat that is arranged behind the seat, wherein for a realization of at least two functional positions (18a, 20a) of the footrest device, the carrier structure is configured to be movable between two main positions, the footrest device comprising at least one footrest element, which is at least configured to provide a support surface for a passenger's foot, wherein the foot and/or leg support element is connected to the footrest element, wherein the foot and/or leg support element is configured to be connected to the seat and/or to the footrest element via at least one form-fit element (32a, 78a), wherein the footrest element is made of a solid, flexurally rigid material, the carrier structure comprising at least one holding arm which couples the footrest element with the seat in a pivotable manner, characterised in that the footrest element is rotationally connected to the holding arm. the footrest device comprising at least one footrest element, which is at least configured to provide a support surface for a passenger's foot, wherein the foot and/or leg support element is connected to the footrest element, wherein the foot and/or leg support element is configured to be connected to the seat and/or to the footrest element via at least one form-fit element (32a, 78a), wherein the footrest element is made of a solid, flexurally rigid material, the carrier structure comprising at least one holding arm which couples the footrest element with the seat in a pivotable manner, characterised in that the footrest element is rotationally connected to the holding arm.
A concentrate suitable for the preparation of a dialysis fluid, at least comprising an acid and a physiologically acceptable electrolyte, characterized in that the acid comprises at least one acidic ion exchanger or is an acidic ion exchanger, wherein the acidic ion exchanger, upon the action of water and / or of salts whose cations can be bound by the groups present in the ion exchanger, releases protons, and wherein the acidic ion exchanger comprises protonated groups selected from sulfonate, sulfate, phosphate, phosphonate, carboxylate groups, wherein the groups are bound to a crosslinked polystyrene or poly(meth)acrylate; and wherein the at least one ion exchanger and the physiologically acceptable electrolyte are present together in a container and wherein the physiologically acceptable electrolyte comprises cations selected from the cations of magnesium, calcium, potassium, sodium, or mixtures of two or more thereof; and comprises anions selected from chloride, acetate, lactate, or two or more thereof.
A molecular ink comprising a flake-less printable composition of 30-60 wt% of a C 8 -C 12 silver carboxylate, 0.1-10 wt% of a polymeric ethyl cellulose binder having an average weight average molecular weight (Mw) in a range of 35,000-100,000 g/mol and balance of at least one organic solvent, all weights based on total weight of the composition.
A method for detecting a Random Access Channel, RACH, signal by a base station in a wireless access system supporting a frequency band having a center frequency higher than a LTE system frequency band, the method comprising: Allocating cyclic shift values of a Zadoff-Chu sequence; Configuring a received signal vector for signals received on a RACH; Deriving cyclic shift candidates of the Zadoff-Chu sequence equal to or larger than a reference value from the received signal vector, using a first detection filter, wherein the first detection filter is configured on assumption that a number of multiple delay paths of the RACH are a single effective channel; and Detecting a RACH signal from the cyclic shift candidates of the Zadoff-Chu sequence using a second detection filter, wherein the second detection filter is configured based on a number of effective channels of the RACH, wherein the first detection filter and the second detection filter are configured based on the cyclic shift values of the Zadoff-Chu sequence. Allocating cyclic shift values of a Zadoff-Chu sequence; Configuring a received signal vector for signals received on a RACH; Deriving cyclic shift candidates of the Zadoff-Chu sequence equal to or larger than a reference value from the received signal vector, using a first detection filter, wherein the first detection filter is configured on assumption that a number of multiple delay paths of the RACH are a single effective channel; and Detecting a RACH signal from the cyclic shift candidates of the Zadoff-Chu sequence using a second detection filter, wherein the second detection filter is configured based on a number of effective channels of the RACH, wherein the first detection filter and the second detection filter are configured based on the cyclic shift values of the Zadoff-Chu sequence.
A test strip (10, 290), comprising: a base substrate having a reagent layer disposed thereon; a covering layer overlying the base substrate and comprising a chamber cover and a body cover having a slot therebetween, the slot being positioned over the reagent layer, wherein the chamber cover and the body cover are disposed in substantially the same horizontal plane; and a sample receiving chamber disposed between the base substrate and the covering layer, wherein the chamber cover overlies the sample-receiving chamber, the slot being in communication with the sample receiving chamber and defining a vent opening in the covering layer that allows air to escape as fluid enters the sample receiving chamber, wherein the slot comprises a gap which spaces the body cover from the chamber cover, wherein the gap extends across the width of the covering layer, wherein the slot is substantially straight, wherein the slot is oriented substantially perpendicular to a longitudinal axis of the test strip (10, 290). a base substrate having a reagent layer disposed thereon; a covering layer overlying the base substrate and comprising a chamber cover and a body cover having a slot therebetween, the slot being positioned over the reagent layer, wherein the chamber cover and the body cover are disposed in substantially the same horizontal plane; and a sample receiving chamber disposed between the base substrate and the covering layer, wherein the chamber cover overlies the sample-receiving chamber, the slot being in communication with the sample receiving chamber and defining a vent opening in the covering layer that allows air to escape as fluid enters the sample receiving chamber, wherein the slot comprises a gap which spaces the body cover from the chamber cover, wherein the gap extends across the width of the covering layer, wherein the slot is substantially straight, wherein the slot is oriented substantially perpendicular to a longitudinal axis of the test strip (10, 290).
A basestation (10, 16), for use in a cellular communications network, having a mechanism for reporting its transmit power, characterised in that the basestation is configured to determine whether its transmit power is outside a reportable range; and, when its transmit power is outside the reportable range, to: report an adjusted transmit power within the reportable range, transmit an adjustment factor, by which the adjusted transmit power differs from the transmit power, and report an adjusted uplink interference value, which differs from an uplink interference value by said adjustment factor. report an adjusted transmit power within the reportable range, transmit an adjustment factor, by which the adjusted transmit power differs from the transmit power, and report an adjusted uplink interference value, which differs from an uplink interference value by said adjustment factor.