mhurhangee/ep-ind-claims huggingface dataset:
A method for switching to machine typ communication, MTC, coverage enhancement mode, wherein a network determines whether a device is capable of maintaining continuous unbroken access to the network for a predetermined period of time using Long-Term Evolution, LTE, protocol, while the device is using the LTE protocol for communicating with the network, and wherein the network triggers the device to switch to using the MTC coverage enhancement mode, as specified in the MTC specification of the LTE protocol, for communicating with the network, if the device is incapable of maintaining continuous unbroken access to the network for a predetermined period of time using the LTE protocol, wherein a coverage area associated with the MTC coverage enhancement mode is greater than a coverage area associated with the LTE protocol. wherein a network determines whether a device is capable of maintaining continuous unbroken access to the network for a predetermined period of time using Long-Term Evolution, LTE, protocol, while the device is using the LTE protocol for communicating with the network, and wherein the network triggers the device to switch to using the MTC coverage enhancement mode, as specified in the MTC specification of the LTE protocol, for communicating with the network, if the device is incapable of maintaining continuous unbroken access to the network for a predetermined period of time using the LTE protocol, wherein a coverage area associated with the MTC coverage enhancement mode is greater than a coverage area associated with the LTE protocol.
Supporting frame structure for a utility vehicle, in particular a heavy goods vehicle, preferably a semitrailer tractor, having: - a first longitudinally running supporting construction and a second longitudinally running supporting construction, said supporting constructions being spaced apart from one another in a transverse direction of the supporting frame structure, and - at least one tank device for accommodating fluid, in particular a fuel tank unit for accommodating fuel for the operation of a motor unit and/or an air tank unit (T') for accommodating air, wherein - the tank unit is formed as a jointly supporting part of the supporting frame structure, in particular as a jointly supporting part of the first supporting construction and of the second supporting construction, characterized in that - the first supporting construction and the second supporting construction comprise at least one widened supporting portion which serves for increasing the flexural rigidity. - a first longitudinally running supporting construction and a second longitudinally running supporting construction, said supporting constructions being spaced apart from one another in a transverse direction of the supporting frame structure, and - at least one tank device for accommodating fluid, in particular a fuel tank unit for accommodating fuel for the operation of a motor unit and/or an air tank unit (T') for accommodating air, - the tank unit is formed as a jointly supporting part of the supporting frame structure, in particular as a jointly supporting part of the first supporting construction and of the second supporting construction, - the first supporting construction and the second supporting construction comprise at least one widened supporting portion which serves for increasing the flexural rigidity.
A method performed by a wireless communication device for receiving feedback in a first cell indicating whether uplink transmissions in the first cell were successfully received, the method comprising: obtaining information indicating a first set of candidate subframes for downlink transmissions in the first cell wherein each candidate subframe comprises a subframe which satisfies a predetermined candidate condition in that transmissions in a second cell during that subframe are limited by being defined as almost blank subframes, ABS, in the second cell; identifying at least one subframe to be used for downlink transmissions of feedback information to the wireless communication device in the first cell, the feedback information indicating whether one or more uplink transmissions were successfully received; if the identified subframe is one of the candidate subframes, receiving at least one downlink transmission of feedback information during the identified subframe; and if the identified subframe is not one of the candidate subframes, performing (710, 714) one or more of: assuming no downlink transmission of feedback information in the identified subframe; deciding to not receive downlink transmission of feedback information in the identified subframe; and assuming a pre-defined result for the downlink transmission of feedback information received in the identified subframe. obtaining information indicating a first set of candidate subframes for downlink transmissions in the first cell wherein each candidate subframe comprises a subframe which satisfies a predetermined candidate condition in that transmissions in a second cell during that subframe are limited by being defined as almost blank subframes, ABS, in the second cell; identifying at least one subframe to be used for downlink transmissions of feedback information to the wireless communication device in the first cell, the feedback information indicating whether one or more uplink transmissions were successfully received; if the identified subframe is one of the candidate subframes, receiving at least one downlink transmission of feedback information during the identified subframe; and if the identified subframe is not one of the candidate subframes, performing (710, 714) one or more of: assuming no downlink transmission of feedback information in the identified subframe; deciding to not receive downlink transmission of feedback information in the identified subframe; and assuming a pre-defined result for the downlink transmission of feedback information received in the identified subframe. assuming no downlink transmission of feedback information in the identified subframe; deciding to not receive downlink transmission of feedback information in the identified subframe; and assuming a pre-defined result for the downlink transmission of feedback information received in the identified subframe.
Clamping bolt of a zero point clamping system, which bolt can be fastened to a workpiece or workpiece carrier and is designed such that it can be pulled into a clamping receptacle of the zero point clamping system in order to clamp the workpiece or workpiece carrier, and can be locked there, the clamping bolt having a movable actuator which is movable in the axial direction and has a locking body coupled thereto in terms of movement such that, when the actuator is moved, the locking body is moved in the radial direction between a release position and a fastening position, it being possible for the locking body to act against a workpiece-side or workpiece carrier-side fastening portion in order to fasten the clamping bolt to the workpiece or workpiece carrier in the fastening position, characterized in that the actuator has at least one oblique formation and in that the locking body is coupled in terms of movement to the oblique formation and is designed as a slide, such that when the actuator is moved axially the slide is moved in the radial direction between the release position and the fastening position, the slide having an engagement portion which, in the fastening position, can engage behind the fastening portion in the axial direction.
A fuel injection control information generation apparatus, comprising: a test point information storage section that holds test point information including a plurality of test points constituted of a set of an engine speed, a fuel injection amount, and intake oxygen concentration of an engine; and a control information generation section that generates, for each of the test points included in the test point information, fuel injection control information in which the engine speed, the fuel injection amount, and the intake oxygen concentration of the engine at the test point are associated with an optimum fuel injection timing at which an index of a total amount consisting of a fuel consumption rate and an NOx emission amount at the test point reaches the smallest, wherein the fuel injection control information is map information in which the optimum fuel injection timing is associated with each of the plurality of test points, characterized in that the optimum fuel injection timing is calculated by variable SOI act that satisfies expression, C ⋅ dNOx dsoi act + 1 − C ⋅ dFC dsoi act = 0. wherein the NOx is a model expression of a NOx emission, the FC is a model expression of the fuel consumption rate, the C is a predetermined coefficient. a test point information storage section that holds test point information including a plurality of test points constituted of a set of an engine speed, a fuel injection amount, and intake oxygen concentration of an engine; and a control information generation section that generates, for each of the test points included in the test point information, fuel injection control information in which the engine speed, the fuel injection amount, and the intake oxygen concentration of the engine at the test point are associated with an optimum fuel injection timing at which an index of a total amount consisting of a fuel consumption rate and an NOx emission amount at the test point reaches the smallest, wherein the fuel injection control information is map information in which the optimum fuel injection timing is associated with each of the plurality of test points, characterized in that the optimum fuel injection timing is calculated by variable SOI act that satisfies expression, C ⋅ dNOx dsoi act + 1 − C ⋅ dFC dsoi act = 0. wherein the NOx is a model expression of a NOx emission, the FC is a model expression of the fuel consumption rate, the C is a predetermined coefficient.
A method, comprising: from an active light source capable of being handled by a user, emitting an electromagnetic wave signal in an initial direction toward a planar layer, wherein the active light source is at a distance above the planar layer and wherein the planar layer comprises a transparent scatter plate layer comprising an array of conical facets (710, 810) to direct light emitted from the active light source towards the transparent scatter plate layer; directing the electromagnetic wave signal in one or more lateral directions in the planar layer different from the initial direction, toward a plurality of detectors positioned at peripheral locations relative to the planar layer; receiving the directed electromagnetic wave signal at the plurality of detectors; and estimating a position of the active light source based on a plurality of intensity measurements of the directed electromagnetic wave signal received at each of the plurality of detectors. from an active light source capable of being handled by a user, emitting an electromagnetic wave signal in an initial direction toward a planar layer, wherein the active light source is at a distance above the planar layer and wherein the planar layer comprises a transparent scatter plate layer comprising an array of conical facets (710, 810) to direct light emitted from the active light source towards the transparent scatter plate layer; directing the electromagnetic wave signal in one or more lateral directions in the planar layer different from the initial direction, toward a plurality of detectors positioned at peripheral locations relative to the planar layer; receiving the directed electromagnetic wave signal at the plurality of detectors; and estimating a position of the active light source based on a plurality of intensity measurements of the directed electromagnetic wave signal received at each of the plurality of detectors.
A method of installing a gas and oil production vessel at an offshore well site, the method characterized by: a) towing the vessel to a well site with a ship, wherein the vessel is a sealed vessel; b) tilting the vessel into an upright position, with the top of the vessel oriented above the bottom of the vessel; c) partially filling the vessel with seawater until the vessel is partially submerged; d) fixing the vessel to the seabed at a height above the seabed using pillars or cables, or a combination of pillars and cables; e) connecting a pipe from the well to the bottom of the vessel to deliver field production to the vessel; f) connecting production pipes at predetermined locations on the vessel for flowing oil and gas away from the vessel; g) connecting pumps to the vessel to pump seawater into the vessel for purposes of pressurizing the vessel. a) towing the vessel to a well site with a ship, wherein the vessel is a sealed vessel; b) tilting the vessel into an upright position, with the top of the vessel oriented above the bottom of the vessel; c) partially filling the vessel with seawater until the vessel is partially submerged; d) fixing the vessel to the seabed at a height above the seabed using pillars or cables, or a combination of pillars and cables; e) connecting a pipe from the well to the bottom of the vessel to deliver field production to the vessel; f) connecting production pipes at predetermined locations on the vessel for flowing oil and gas away from the vessel; g) connecting pumps to the vessel to pump seawater into the vessel for purposes of pressurizing the vessel.
Use of a process system comprising: - a mechanical vapor compression (MVC/MVR) subsystem and - a process subsystem connected to said MVC/MVR-subsystem, wherein the MVC/MVR-subsystem is arranged to receive a liquid supplied to an evaporator of the MVC/MVR-subsystem through a liquid supply line and is arranged to produce compressed vapor from said liquid and to heat the liquid being received, wherein the MVC/MVR-subsystem is arranged as a closed loop vapor MVC/MVR-subsystem comprising a compressed vapor line and being arranged to reuse the produced compressed vapor being produced in a compressor of the MVC/MVR-subsystem and being provided back through the compressed vapor line to evaporate the liquid and to condense to form a condensed liquid being transported through a heated liquid line, characterized in that the process subsystem is connected to said MVC/MVR-subsystem and is arranged to receive a portion of said compressed vapor provided to the process subsystem through a compressed vapor portion line connected to the compressed vapor line, wherein the portion of the compressed vapor is used in the process subsystem during operation of the process subsystem to produce an industrial product or to perform a cleaning procedure or to generate work such as propulsion in freight- and/or public-transport. - a mechanical vapor compression (MVC/MVR) subsystem and - a process subsystem connected to said MVC/MVR-subsystem, wherein the MVC/MVR-subsystem is arranged to receive a liquid supplied to an evaporator of the MVC/MVR-subsystem through a liquid supply line and is arranged to produce compressed vapor from said liquid and to heat the liquid being received, wherein the MVC/MVR-subsystem is arranged as a closed loop vapor MVC/MVR-subsystem comprising a compressed vapor line and being arranged to reuse the produced compressed vapor being produced in a compressor of the MVC/MVR-subsystem and being provided back through the compressed vapor line to evaporate the liquid and to condense to form a condensed liquid being transported through a heated liquid line, characterized in that the process subsystem is connected to said MVC/MVR-subsystem and is arranged to receive a portion of said compressed vapor provided to the process subsystem through a compressed vapor portion line connected to the compressed vapor line, wherein the portion of the compressed vapor is used in the process subsystem during operation of the process subsystem to produce an industrial product or to perform a cleaning procedure or to generate work such as propulsion in freight- and/or public-transport.
An antenna arrangement, comprising: a support plane (105; 205; 305); a first antenna element (110; 210; 310) comprising a first end having an elongated shape along a first axis and a second end opposite the first end, the first antenna element coupled with the second end to the support plane (105; 205; 305) via a first connection (134; 144; 234); a second antenna element (120; 220; 320) comprising a first end having an elongated shape along a first axis and a second end opposite the first end, the second antenna element coupled with the second end to the support plane (105; 205; 305) via a second connection (144; 134; 244); a first coupler (112; 212) having an elongated shape along a second axis substantially perpendicular to the first axis of the first antenna element (110; 210; 310), the first coupler being configured to couple to the first antenna element (110; 210; 310) via the first end of the first antenna element; and a second coupler (122; 222) having an elongated shape along a second axis substantially perpendicular to the first axis of the second antenna element (120; 220; 320), the second coupler being configured to couple to the second antenna element (120; 220; 320) via the first end of the second antenna element (120; 220; 320), characterized in that the first and the second antenna elements at least partially overlap when viewed in a direction perpendicular to the support plane (105; 205; 305). a support plane (105; 205; 305); a first antenna element (110; 210; 310) comprising a first end having an elongated shape along a first axis and a second end opposite the first end, the first antenna element coupled with the second end to the support plane (105; 205; 305) via a first connection (134; 144; 234); a second antenna element (120; 220; 320) comprising a first end having an elongated shape along a first axis and a second end opposite the first end, the second antenna element coupled with the second end to the support plane (105; 205; 305) via a second connection (144; 134; 244); a first coupler (112; 212) having an elongated shape along a second axis substantially perpendicular to the first axis of the first antenna element (110; 210; 310), the first coupler being configured to couple to the first antenna element (110; 210; 310) via the first end of the first antenna element; and a second coupler (122; 222) having an elongated shape along a second axis substantially perpendicular to the first axis of the second antenna element (120; 220; 320), the second coupler being configured to couple to the second antenna element (120; 220; 320) via the first end of the second antenna element (120; 220; 320), characterized in that the first and the second antenna elements at least partially overlap when viewed in a direction perpendicular to the support plane (105; 205; 305).
Clothes drying machine, especially a condensation clothes dryer, with a clothes drum that can be rotated about an at least approximately horizontal axis and that can be actuated electrically, with functional parts for conveying and with components (13, 15) for routing the process air and the cooling air, with a heating device for the process air, and with a support structure that stabilises the machine mechanically, and also with modular units (4 to 7, 14) receiving functional parts and components of the air routing system, characterised in that - the modular units (4 to 7, 14) are realised as parts of the support structure, - the support structure is essentially realised from a front module in the form of a combined body made up of an end shield and a front wall, a base module on the bottom side consisting of a base body and a process air lid, and a rear module consisting of a rear wall, the heating device, and a cover, and - the end shield and the base body are manufactured from plastic and shaped for receiving the functional parts and components (13, 15). - the modular units (4 to 7, 14) are realised as parts of the support structure, - the support structure is essentially realised from a front module in the form of a combined body made up of an end shield and a front wall, a base module on the bottom side consisting of a base body and a process air lid, and a rear module consisting of a rear wall, the heating device, and a cover, and - the end shield and the base body are manufactured from plastic and shaped for receiving the functional parts and components (13, 15).
An apparatus for placing examination objects by blowing, comprising: - a container fixing means for holding a container, wherein the container is equipped with a first cap filter at the opening and contains a mixed solution with the examination objects; wherein the container fixing means is configured to hold the container so that the cap filter faces down; - a suction unit positioned below the container fixing means with an air ejecting and sucking means, wherein the air ejecting and sucking means can be coupled to a filter for letting a solution through and blocking the examination objects, in a state where the opening of the container containing the mixed solution is coupled to the upper end of the filter; - a blower unit comprising a nozzle, said blower unit being for generating, when a slide is located on the upper end of the filter on which the examination objects are placed, positive pressure in the lower end of the filter and placing the examination objects placed on the filter onto the slide; and - a filter transfer means for sequentially transferring the filter onto the suction unit and the blower unit, - control means configured to control the filter transfer means, to control the air ejection amount, the air suction amount, the number of air ejections, and the number of air suctions by the air ejecting and sucking means; wherein the control means are configured, when the suction unit is coupled to the filter in a state where the opening of the container is coupled to the upper end of the filter, to control the air ejecting and sucking means so as to firstly expel air to the lower end of the filter so that the examination objects, settled in the first cap filter of the container, are floated and uniformly spread in the mixed solution; and to secondly suck the examination objects from the container to place the examination objects on the filter. - a container fixing means for holding a container, wherein the container is equipped with a first cap filter at the opening and contains a mixed solution with the examination objects; wherein the container fixing means is configured to hold the container so that the cap filter faces down; - a suction unit positioned below the container fixing means with an air ejecting and sucking means, wherein the air ejecting and sucking means can be coupled to a filter for letting a solution through and blocking the examination objects, in a state where the opening of the container containing the mixed solution is coupled to the upper end of the filter; - a blower unit comprising a nozzle, said blower unit being for generating, when a slide is located on the upper end of the filter on which the examination objects are placed, positive pressure in the lower end of the filter and placing the examination objects placed on the filter onto the slide; and - a filter transfer means for sequentially transferring the filter onto the suction unit and the blower unit, - control means configured to control the filter transfer means, to control the air ejection amount, the air suction amount, the number of air ejections, and the number of air suctions by the air ejecting and sucking means;