mhurhangee/ep-ind-claims huggingface dataset:
A shovel comprising: a lower traveling body; an upper turning body turnably mounted on the lower traveling body; a cab mounted on the upper turning body; an attachment including a boom attached to the upper turning body; a boom cylinder configured to drive the boom; a hydraulic pump (14, 14L, 14R) configured to supply hydraulic oil to the boom cylinder through a conduit (40L, 40R, 42L, 42R); a computerised control device configured to control hydraulic oil flowable into the boom cylinder; and an information obtaining device configured to obtain information on the attachment, characterized in, that the computerised control device is configured to increase a pressure of the hydraulic oil flowable into the boom cylinder in accordance with the information on the attachment before a boom raising operation is performed. a lower traveling body; an upper turning body turnably mounted on the lower traveling body; a cab mounted on the upper turning body; an attachment including a boom attached to the upper turning body; a boom cylinder configured to drive the boom; a hydraulic pump (14, 14L, 14R) configured to supply hydraulic oil to the boom cylinder through a conduit (40L, 40R, 42L, 42R); a computerised control device configured to control hydraulic oil flowable into the boom cylinder; and an information obtaining device configured to obtain information on the attachment, characterized in, that the computerised control device is configured to increase a pressure of the hydraulic oil flowable into the boom cylinder in accordance with the information on the attachment before a boom raising operation is performed.
A method for synthesizing reported orientation data and reported motion data from a web browser application being executed on a mobile communications device for passing to a web browser sub-application, the method comprising: identifying available input sensors (46, 48, 50) from the reported orientation data and the reported motion data (58, 501); receiving from the web browser sub-application a set of requested input sensors; flagging specific ones of the set of requested input sensors absent from the identified available input sensors; receiving measured values from the available input sensors; deriving equivalent values for the flagged specific ones of the requested input sensors from one or more measured values received from the available input sensors; normalizing each of the measured values and the derived equivalent values to respective standard units; applying a quality evaluation to each of the measured values and the derived equivalent values, the measured values and the derived equivalent values which satisfy a standard as defined under the quality evaluation being designated as adequate sensor values, while the measured values and the derived equivalent values not satisfying the standard as defined under the quality evaluation being designated as inadequate sensor values; selectively applying a processing operation to the inadequate sensor values; and passing the adequate sensor values and the processed inadequate sensor values to the web browser sub-application as a set of vetted sensor values. identifying available input sensors (46, 48, 50) from the reported orientation data and the reported motion data (58, 501); receiving from the web browser sub-application a set of requested input sensors; flagging specific ones of the set of requested input sensors absent from the identified available input sensors; receiving measured values from the available input sensors; deriving equivalent values for the flagged specific ones of the requested input sensors from one or more measured values received from the available input sensors; normalizing each of the measured values and the derived equivalent values to respective standard units; applying a quality evaluation to each of the measured values and the derived equivalent values, the measured values and the derived equivalent values which satisfy a standard as defined under the quality evaluation being designated as adequate sensor values, while the measured values and the derived equivalent values not satisfying the standard as defined under the quality evaluation being designated as inadequate sensor values; selectively applying a processing operation to the inadequate sensor values; and passing the adequate sensor values and the processed inadequate sensor values to the web browser sub-application as a set of vetted sensor values.
A network node module (19; 50) included in a network node of wireless communication network, the network node module comprising: a movement detector configured to detect movement between a first and a second mating element (32, 30; 27, 54), where the network node module comprises the first mating element (32; 27) and both mating elements are required for obtaining an operative network node, a module memory configured to be reset based on the detected movement thereby erasing old location data, and a control unit configured to generate an indication of a physical change in relation to the exterior of the network node module based on the detected movement and to initiate an indication handling procedure based on the generated indication, the indication handling procedure comprising receiving new location data. a movement detector configured to detect movement between a first and a second mating element (32, 30; 27, 54), where the network node module comprises the first mating element (32; 27) and both mating elements are required for obtaining an operative network node, a module memory configured to be reset based on the detected movement thereby erasing old location data, and a control unit configured to generate an indication of a physical change in relation to the exterior of the network node module based on the detected movement and to initiate an indication handling procedure based on the generated indication, the indication handling procedure comprising receiving new location data.
A base station, comprising: acquisition means configured to acquire other station delay information, which is information on communication delays predicted in communications of a terminal apparatus via each of one or more of other base stations (101, 103); and notification means configured to notify the terminal apparatus of the acquired other station delay information, the acquisition means is configured to acquire the other station delay information on each of the one or more of other base stations (101,103), characterized in that the acquisition means is further configured to acquire information on a scheduled movement path of the terminal apparatus, and the base station further comprises determination means configured to determine, based on the scheduled movement path, which the other station delay information on the one or more of other base stations (101,103) is to be provided to the terminal apparatus. acquisition means configured to acquire other station delay information, which is information on communication delays predicted in communications of a terminal apparatus via each of one or more of other base stations (101, 103); and notification means configured to notify the terminal apparatus of the acquired other station delay information, the acquisition means is configured to acquire the other station delay information on each of the one or more of other base stations (101,103), characterized in that the acquisition means is further configured to acquire information on a scheduled movement path of the terminal apparatus, and the base station further comprises determination means configured to determine, based on the scheduled movement path, which the other station delay information on the one or more of other base stations (101,103) is to be provided to the terminal apparatus.
A device comprising: a low-band mid signal decoder configured to decode a low-band portion of an encoded mid signal to generate a decoded low-band mid signal, wherein the encoded mid signal corresponds to a sum of a first audio signal and a second audio signal; a low-band residual prediction unit configured to process the decoded low-band mid signal to generate a low-band residual prediction signal; an up-mix processor configured to generate a low-band left channel and a low-band right channel based partially on the decoded low-band mid signal and the low-band residual prediction signal; a high-band mid signal decoder configured to decode a high-band portion of the encoded mid signal to generate a time-domain decoded high-band mid signal; a high-band residual prediction unit configured to process the time-domain decoded high-band mid signal to generate a time-domain high-band residual prediction signal; and an inter-channel bandwidth extension decoder configured to generate a high-band left channel and a high-band right channel based on the time-domain decoded high-band mid signal and the time-domain high-band residual prediction signal. a low-band mid signal decoder configured to decode a low-band portion of an encoded mid signal to generate a decoded low-band mid signal, wherein the encoded mid signal corresponds to a sum of a first audio signal and a second audio signal; a low-band residual prediction unit configured to process the decoded low-band mid signal to generate a low-band residual prediction signal; an up-mix processor configured to generate a low-band left channel and a low-band right channel based partially on the decoded low-band mid signal and the low-band residual prediction signal; a high-band mid signal decoder configured to decode a high-band portion of the encoded mid signal to generate a time-domain decoded high-band mid signal; a high-band residual prediction unit configured to process the time-domain decoded high-band mid signal to generate a time-domain high-band residual prediction signal; and an inter-channel bandwidth extension decoder configured to generate a high-band left channel and a high-band right channel based on the time-domain decoded high-band mid signal and the time-domain high-band residual prediction signal.
A method for operating a home automation system that includes a host controller, the method comprising the steps of: maintaining, at the host controller, a home database that is adapted to store at least one of configuration information used for providing services involving one or more hardware elements of the home automation system, scenes that are configured in the home automation system, or system state information indicating a present condition of one or more hardware elements of the home automation system; wherein the host controller includes application program interfaces, APIs, that support communications with a mobile application, app, executing on a mobile device, separate from the host controller, and is used to configure and/ or control the home automation system; synchronizing the home database with a configuration database of cloud services over the Internet; wherein when there is connectivity between the mobile application, app, executing on the mobile device and the host controller via an in-home local area network, LAN,, performing data interactions related to the home automation system between the mobile app and the home database of the host controller over the in-home LAN; and when there is no connectivity between the mobile app and the host controller via the in-home LAN, performing data interactions related to the home automation system between the mobile app and the configuration database of the cloud services over the Internet. maintaining, at the host controller, a home database that is adapted to store at least one of configuration information used for providing services involving one or more hardware elements of the home automation system, scenes that are configured in the home automation system, or system state information indicating a present condition of one or more hardware elements of the home automation system; wherein the host controller includes application program interfaces, APIs, that support communications with a mobile application, app, executing on a mobile device, separate from the host controller, and is used to configure and/ or control the home automation system; synchronizing the home database with a configuration database of cloud services over the Internet; wherein when there is connectivity between the mobile application, app, executing on the mobile device and the host controller via an in-home local area network, LAN,, performing data interactions related to the home automation system between the mobile app and the home database of the host controller over the in-home LAN; and when there is no connectivity between the mobile app and the host controller via the in-home LAN, performing data interactions related to the home automation system between the mobile app and the configuration database of the cloud services over the Internet.
Motor vehicle, in particular commercial vehicle, having at least one air accumulator tank of an air supply, characterized in that the air accumulator tank is formed by way of at least one air cushion (16 to 21) which is integrated into a wall region (2, 3, 4) of the vehicle structure, a receiving space between a shell and an interior trim panel being used for the integration of the at least one air cushion (16 to 21).
A medical cutting instrument for cutting muscles and tendons, having a shaft on whose distal end a tool is mounted that consists of two jaw members (3, 4), such that one jaw member is configured as a jaw member that can be moved with respect to the other jaw member, and on whose proximal end a handle is mounted, such that the movable jaw member and the handle operatively interact with one another by way of an actuation element mounted in the shaft, in such a way that the movable jaw member can be shifted by actuation of the handle between a closed position and an opened position of the tool, characterised in that one jaw member is configured rigidly and the other jaw member is configured as a jaw member that is pivotable about a pivot axis relative to the rigid jaw member, wherein the rigid jaw member seen from overhead is U-shaped in such a way that the two parallel legs of the U are disposed diagonally to the instrument longitudinal axis and the opening of the U points to one side of the rigid jaw member, so that the rigid jaw member can be pushed from the side onto the muscle/tendon tissue that is to be severed, and that the pivotable jaw member seen from overhead is T-shaped in such a way that the crossbar of the T is disposed parallel to the distal-side leg of the U-shaped rigid jaw member and the longitudinal bar is disposed as extension of the actuation element, wherein at least at the distal-side crossbar of the pivotable jaw member a cutting edge is configured which is oriented toward the rigid jaw member.
Rotary piston machine working as a pump or compressor, having a driven, trochoidally toothed power rotor, having a counter rotor which engages into the toothing and is thus correspondingly toothed, having a working chamber which is arranged between the rotors, having a pump drive device (2, 16), having a base housing which accommodates parts of the pump drive device, having a pump head which supports the counter rotor axially and radially, and having a releasable connecting device between the base housing and the pump head, wherein the power rotor is part of a canned motor having a can, in that the can extends with a radially extending section between mutually facing sides of the base housing and the pump head, and in that the pump drive device (2, 16) is divided by the can into a magnet part which is arranged in the power rotor and into a coil part which is arranged in the base housing and through which current flows, wherein the device (7, 11) for connecting the base housing and the pump head is situated in the region of the end faces which are in contact, in that an outer bulge (7, 11) or flange, assigned to one another, is present in the region of contact, and in that said bulges (7, 11) or flanges are able to be clamped together axially via a ring which engages over them and which is able to be shortened tangentially, characterized in that the ring is formed as a clamping ring which is outwardly curved in section and which is open on the circumference at a point, said ring having radial webs which are arranged at the open point and which are connected to one another via a screw device, and in that, for accommodating the bearing arrangement and the permanent magnet of the power rotor, the can is of pot-shaped form with a wide flange which is clamped radially between the housings, and in that a seal is arranged between the mutually facing faces of the can and the pump head, wherein the seal, formed as a ring, is arranged in a face ring groove, and in that, in order to close off the entire pump head, the face ring groove is arranged on that side of the pump head which faces the flange.
A pipe for heating and transporting able to be connected on one hand with a windscreen wiper blade with two spray lines, and on the other hand with a pump to supply the spray lines with washer fluid contained in a reservoir of the motor vehicle by means of a pump comprising: an extruded sleeve with at least two washer fluid circulation channels (5a, 5b), characterized in that at least two electric wires (6a, 6b, 6c, 6d) of said pipe are embedded within the mass of the sleeve, the electric wires (6a, 6b) and the circulation channels (5a, 5b) being substantially parallel to each other, the cross-sections of the electric wires being aligned at the center of the sleeve in a median direction with respect to the circulation channels (5a, 5b) or the cross-sections of the embedded electric wires (6a, 6b) and the circulation channels (5a, 5b) are substantially aligned.
An antibody fragment linked to an epitope and an antibody that binds to the epitope for use in treating an infection from bacteria or viruses in an animal in need thereof, wherein: (i) the antibody fragment linked to the epitope is to be administered to the animal; and (ii) the antibody that binds to the epitope is to be administered to the animal prior to, at the same time or after said antibody fragment linked to the epitope; wherein upon use a complex forms between the antibody fragment linked to the epitope and the antibody that binds to the epitope, thereby enhancing the efficacy of the antibody fragment compared to an equivalent uncomplexed antibody fragment, and wherein the antibody fragment binds to a target antigen selected from bacterial antigens or viral antigens. (i) the antibody fragment linked to the epitope is to be administered to the animal; and (ii) the antibody that binds to the epitope is to be administered to the animal prior to, at the same time or after said antibody fragment linked to the epitope;
A method for transmitting, in a digital broadcast network supporting a configuration of a plurality of physical layer pipes, digital broadcast data encapsulated into one or more baseband frames each with a header of a predefined format, the baseband frames being the frames to which physical layer forward error correction coding is applied and that are mapped on at least one physical layer pipe, the method comprising the steps of: configuring one or more parameters of a physical layer pipe; and transmitting the configured parameters within physical layer signalling related to said physical layer pipe, characterized by transmitting, within said physical layer pipe baseband frames, the header of each baseband frame including parameters indicating at least one of a length of the baseband payload and distance to the start of the first user packet within the baseband frame, and not including a parameter indicating an input stream identifier and parameters indicating an input stream format, presence of input stream synchronization, and presence of null packet deletion, and the physical layer signalling at least including parameters indicating said input stream format, presence of input stream synchronization, and presence of null packet deletion. configuring one or more parameters of a physical layer pipe; and transmitting the configured parameters within physical layer signalling related to said physical layer pipe, characterized by transmitting, within said physical layer pipe baseband frames, the header of each baseband frame including parameters indicating at least one of a length of the baseband payload and distance to the start of the first user packet within the baseband frame, and not including a parameter indicating an input stream identifier and parameters indicating an input stream format, presence of input stream synchronization, and presence of null packet deletion, and the physical layer signalling at least including parameters indicating said input stream format, presence of input stream synchronization, and presence of null packet deletion.
Method for operating a home station comprising connections for hot water, at least one heating circuit and a heating water circuit which is coupled to a central heat generation device, the heating water flowing through a heat exchanger in order to generate hot water and a hot water priority circuit switching the heating circuit when hot water is drawn by means of a valve unit,a return temperature in a heating return being recorded at the heat exchanger and, when a predetermined return temperature is reached at the valve unit, the heating return of the heating circuit being closed, characterized in that the return temperature of the heating circuit is recorded for controlling the valve unit, and a return temperature causing the opening or closing of the heating return at the valve unit is set at the valve unit.
Method for recognizing the physical and/or mental condition of a vehicle occupant on the basis of a BCG signal, which is obtained by means of a BCG sensor installed in the vehicle, which BCG sensor is an MEM sensor, wherein a cross-correlation of the BCG signal with heartbeat parameters is carried out in an optimum filter of a device for recognizing the physical and/or mental condition of a vehicle occupant, which heartbeat parameters are varied within predefined limits to find a maximum of the cross-correlation function, and probable peaks are located in a cross-correlation function found in such a manner and the heart rate is calculated therefrom, characterized in that the heartbeat parameters are or comprise a number of heartbeat parameters, which are generated by frequency variation of a single predefined heartbeat pattern within natural heartbeat limits.
A transaction card comprising: a card body; an EMV chip within a pocket in the card body and a slot within the card body, wherein a first portion of the slot is formed at a first angle relative to a plane of the card body, and wherein a second portion of the slot is formed at a second angle relative to the plane of the card body; wherein the slot includes a third portion having a third angle relative to the plane of the card body characterized in that the first portion begins at an edge of the card body and the third portion ends at a far edge of an aperture of the pocket which is the aperture edge farthest from the card edge where the slot starts. a card body; an EMV chip within a pocket in the card body and a slot within the card body, wherein a first portion of the slot is formed at a first angle relative to a plane of the card body, and wherein a second portion of the slot is formed at a second angle relative to the plane of the card body; wherein the slot includes a third portion having a third angle relative to the plane of the card body characterized in that the first portion begins at an edge of the card body and the third portion ends at a far edge of an aperture of the pocket which is the aperture edge farthest from the card edge where the slot starts.