mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting or quantifying circulating tumor cells (CTCs) in a biological sample from a subject, and optionally for isolating said CTCs from the biological sample, comprising detecting the expression of CD321 by circulating non-hematopoietic cells in the biological sample, wherein the expression of CD321 by a circulating non-hematopoietic cell identifies said cell as a circulating tumor cell, and optionally isolating the CD321 expressing CTCs from the biological sample.
A process for preparing isosorbide di(meth)acrylate by transesterifying alkyl (meth)acrylate with isosorbide, comprising the steps of: (i) reacting alkyl (meth)acrylate with isosorbide in the presence of a catalyst comprising titanium or zirconium and a stabilizer in the presence of an azeotroping agent which forms an azeotrope with the alcohol bound in the alkyl (meth)acrylate, (ii) continuously distilling off the azeotrope of azeotroping agent and alcohol, wherein steps (i) and (ii) are conducted simultaneously until isosorbide has been essentially fully converted, (iii) adding water to the product mixture which comprises isosorbide (meth)acrylate and is obtained in steps (i) and (ii) and removing the hydrolyzate of the catalyst comprising titanium or zirconium, (iv) distilling unconverted alkyl (meth)acrylate and azeotroping agent out of the product mixture, (v) distilling water out of the product mixture, wherein step (iv) can also be conducted before step (iii) and steps (iv) and (v) can also be conducted in one distillation step. (i) reacting alkyl (meth)acrylate with isosorbide in the presence of a catalyst comprising titanium or zirconium and a stabilizer in the presence of an azeotroping agent which forms an azeotrope with the alcohol bound in the alkyl (meth)acrylate, (ii) continuously distilling off the azeotrope of azeotroping agent and alcohol, wherein steps (i) and (ii) are conducted simultaneously until isosorbide has been essentially fully converted, (iii) adding water to the product mixture which comprises isosorbide (meth)acrylate and is obtained in steps (i) and (ii) and removing the hydrolyzate of the catalyst comprising titanium or zirconium, (iv) distilling unconverted alkyl (meth)acrylate and azeotroping agent out of the product mixture, (v) distilling water out of the product mixture,
A device, comprising: - an interface (121-1 - 121-3) configured to receive, on a first channel (170-1 - 170-3), a sequence of symbols (201, 201-1 - 201-3, 202-1 - 202-14) wherein the device is characterized by further comprising - at least one processor configured to estimate a noise contribution of a given synchronization symbol (201, 201-1 - 201-3) of the sequence of symbols (201, 201-1 - 201-3, 202-1 - 202-14) and further estimate a reference noise contribution of at least one further symbol (201, 201-1 - 201-3, 202-1 - 202-14) of the sequence of symbols (201, 201-1 - 201-3, 202-1 - 202-14), wherein the at least one processor is configured to selectively consider, based on a deviation of the noise contribution of the given synchronization symbol (201, 201-1 - 201-3) from the reference noise contribution of the at least one further symbol (201, 201-1 - 201-3, 202-1 - 202-14), the given synchronization symbol (201, 201-1 - 201-3) when determining a coupling coefficient of crosstalk between the first channel (170-1 - 170-3) and a second channel (170-1 - 170-3). - an interface (121-1 - 121-3) configured to receive, on a first channel (170-1 - 170-3), a sequence of symbols (201, 201-1 - 201-3, 202-1 - 202-14) wherein the device is characterized by further comprising - at least one processor configured to estimate a noise contribution of a given synchronization symbol (201, 201-1 - 201-3) of the sequence of symbols (201, 201-1 - 201-3, 202-1 - 202-14) and further estimate a reference noise contribution of at least one further symbol (201, 201-1 - 201-3, 202-1 - 202-14) of the sequence of symbols (201, 201-1 - 201-3, 202-1 - 202-14),
A device comprising: at least two first registers, each first register containing a data word (VIR1, VIR2) and a verification bit (VPAR1, VPAR2), and a first circuit configured to determine whether the verification bit of each register corresponds to the data word of said register, the data words of the first registers being selected so that the bits of a same rank of the first registers comprise two complementary bits, a common binary word being associated with all the registers, the common word comprising a bit associated with each register, the value of the verification bit of each register depending on the data word of said register and on the value of the bit of the common word associated with said register. at least two first registers, each first register containing a data word (VIR1, VIR2) and a verification bit (VPAR1, VPAR2), and a first circuit configured to determine whether the verification bit of each register corresponds to the data word of said register, the data words of the first registers being selected so that the bits of a same rank of the first registers comprise two complementary bits, a common binary word being associated with all the registers, the common word comprising a bit associated with each register, the value of the verification bit of each register depending on the data word of said register and on the value of the bit of the common word associated with said register.
A method of communicating automated power conversion device data in a communications system, the method comprising storing, in an automated power conversion device, operational information on the usage of the automated power conversion device, and information on user-adjustable parameter settings of the automated power conversion device; receiving, in a local terminal device, the operational information and the information on the user-adjustable parameter settings from the automated power conversion device; forwarding the operational information and the information on the user-adjustable parameter settings from the local terminal device to a remote network node via a communications network; receiving the operational information and the information on the user-adjustable parameter settings in the remote network node from the local terminal device; analysing the received operational information and the information on the user-adjustable parameter settings in the remote network node; based on the analysing, generating in the remote network node a recommendation on an optimal set of user-adjustable parameters regarding the automated power conversion device; transmitting, from the remote network node to the local terminal device, the generated recommendation on the optimal set of the user-adjustable parameters via the communications network; and receiving the recommendation in the local terminal device from the remote network node; wherein the method comprises obtaining, in the local terminal device from a sensor of the local terminal device, sensory information on physical conditions of the automated power conversion device recorded by the sensor in the proximity of the local terminal device; forwarding the sensory information from the local terminal device to the remote network node via the communications network; receiving the sensory information in the remote network node from the local terminal device; utilizing, in the remote network node, the received sensory information as additional information for the generating of the recommendation on the optimal set of the user-adjustable parameters regarding the automated power conversion device.
A device for reforming plastic pre-forms into plastic containers with a transport device on which are arranged a plurality of blow moulding stations, wherein each of these blow moulding stations has a blow mould and the device has a clean room inside which the plastic pre-forms can be transported, and wherein each blow mould has two lateral parts (102, 104) and a bottom part, wherein the lateral parts (102, 104) and the bottom part jointly form a cavity inside which a plastic pre-form is capable of being reformed into a plastic container and at least the areas of the lateral parts (102, 104) delimiting this cavity and of the bottom part are always situated inside the clean room, wherein at least one first drive device (112, 116) is provided for moving the lateral parts (102, 104) or for moving the bottom part, wherein the drive device (112, 116) is situated at least in part outside the clean room, and a sealing device is provided which seals off the clean room from a region in which the drive device (112, 116) is situated, wherein at least one of the drive devices (112, 116) situated outside the clean room is coupled to at least one lateral part (102, 104) by way of a coupling device and this coupling device extends through at least one wall (13, 17) delimiting the clean room and wherein a bearing device (140 a, b) is provided for bearing the coupling device, characterized in that the bearing device (140 a, b) is fastened to the wall (13, 17) and extends from the fastening only to one side of the wall (13, 17) and wherein two bearing devices (140 a, b) are present for bearing the coupling device, wherein both bearing devices (140 a, b) extend from a wall (13, 17) in the direction of the clean room and wherein the first bearing device (140 a, b) is arranged is arranged at the upper wall, i.e. a cover of the clean room and a second bearing device (140 a, b) is arranged at the lower wall, i.e. a base of the clean room.
An RFID mesh label configured to be integrally incorporated within a vulcanized tire and to provide unique identifier(s) and/or other information about the vulcanized tire, the RFID mesh label comprising: a face layer configured to be positioned adjacent or flush to an outer surface of the vulcanized tire; an RFID layer positioned underneath the face layer, the RFID layer having an RFID device that is configured to provide unique identifier(s) and/or other information about the vulcanized tire upon being read with an RFID reader; and characterised by a mesh backing overlying the RFID layer and adapted to be integrally incorporated in a vulcanized tire after subjecting a green tire to a vulcanization process. a face layer configured to be positioned adjacent or flush to an outer surface of the vulcanized tire; an RFID layer positioned underneath the face layer, the RFID layer having an RFID device that is configured to provide unique identifier(s) and/or other information about the vulcanized tire upon being read with an RFID reader; and characterised by a mesh backing overlying the RFID layer and adapted to be integrally incorporated in a vulcanized tire after subjecting a green tire to a vulcanization process.
A computer-implemented method for using hover information to pause transient user interface features, the computer-implemented method being performed by one or more processors executing computer executable instructions for the computer-implemented method, and the computer-implemented method comprising: detecting the presence of an object at or near the display surface of a computer system; identifying the location of the object relative to the display surface; determining, based on the identified location of the object, where the object will contact the display surface; identifying one or more transient user interface elements that are being displayed where the object is determined to contact the display surface, wherein the one or more transient user interface elements are user interface elements which are temporary, or which have a function, action or result changing over time or are only to be displayed for a short amount of time; and pausing the identified transient user interface elements to ensure that the user interface elements remain static. detecting the presence of an object at or near the display surface of a computer system; identifying the location of the object relative to the display surface; determining, based on the identified location of the object, where the object will contact the display surface; identifying one or more transient user interface elements that are being displayed where the object is determined to contact the display surface, wherein the one or more transient user interface elements are user interface elements which are temporary, or which have a function, action or result changing over time or are only to be displayed for a short amount of time; and pausing the identified transient user interface elements to ensure that the user interface elements remain static.
Device for fixing a rod (13a, 13b) type heating element including - a supporting member equipped with a cavity, and intended to be secured to a wall, - a fixing element including an elongated body inserted into the cavity, and a fixing head of the heating element arranged at one end of the elongated body, said fixing head protruding from the supporting member, characterised in that it includes - a pin for locking the fixing element with the supporting member. - a supporting member equipped with a cavity, and intended to be secured to a wall, - a fixing element including an elongated body inserted into the cavity, and a fixing head of the heating element arranged at one end of the elongated body, said fixing head protruding from the supporting member, characterised in that it includes - a pin for locking the fixing element with the supporting member.
Method for monitoring a heating system, in which method a monitoring value of the heating system, which monitoring value represents a degree of use of the system or on which the degree of use of the system is dependent or which is dependent on the degree of use of the system, is repeatedly calculated each time a first time interval elapses, characterized in that the calculation takes place on the basis of a variable-time model depending on an average utilization of the heating system, wherein the model describes the dependency between the utilization of the heating system and the standardized primary energy expended, and wherein the model is formed or modified, before the calculation of the monitoring value in each case after a second interval has elapsed, depending on heating system parameters which were previously recorded by measurement in the second time interval, and the monitoring value is compared with a comparison value, in particular a stored limit value, wherein an indication of the modification is carried out in the event of a modification of the calculated monitoring value beyond the comparison value.
A method by a first base station in a first radio access technology, RAT, the method comprising: receiving a first message requesting an inter-RAT handover of a user equipment, UE, from a source cell associated with a second base station in a second RAT to a target cell associated with the first base station, the first message including coverage and quality condition information, a tracking area identity, TAI, an identity, ID, of the second base station corresponding to a global eNodeB, eNB, ID, and a cell ID of the source cell, the second RAT being an evolved terrestrial radio access network, E-UTRAN; instructing the UE to measure the second RAT while being connected to the first RAT, in case that the coverage and quality condition information is received; receiving, from the UE, a report of a measurement performed based on the instruction; identifying whether the inter-RAT handover is unnecessary based on the report of the measurement and the coverage and quality condition information; and transmitting, to the second base station, based on the TAI and the ID of the second base station, a second message indicating that the inter-RAT handover is unnecessary in case of identifying that the inter-RAT handover is unnecessary, the second message including the TAI and the ID of the second base station and the cell ID of the source cell, wherein the cell ID of the source cell includes an E-UTRAN cell global identifier, ECGI. receiving a first message requesting an inter-RAT handover of a user equipment, UE, from a source cell associated with a second base station in a second RAT to a target cell associated with the first base station, the first message including coverage and quality condition information, a tracking area identity, TAI, an identity, ID, of the second base station corresponding to a global eNodeB, eNB, ID, and a cell ID of the source cell, the second RAT being an evolved terrestrial radio access network, E-UTRAN; instructing the UE to measure the second RAT while being connected to the first RAT, in case that the coverage and quality condition information is received; receiving, from the UE, a report of a measurement performed based on the instruction; identifying whether the inter-RAT handover is unnecessary based on the report of the measurement and the coverage and quality condition information; and transmitting, to the second base station, based on the TAI and the ID of the second base station, a second message indicating that the inter-RAT handover is unnecessary in case of identifying that the inter-RAT handover is unnecessary, the second message including the TAI and the ID of the second base station and the cell ID of the source cell, wherein the cell ID of the source cell includes an E-UTRAN cell global identifier, ECGI.
A shaping apparatus for the shaping of plastics material preforms into plastics material containers with a plurality of blow moulding stations and with at least one control device (55; 55A; 55B; 55C) for the control of blow moulding pressures and/or volume flows at the blow moulding stations, in which the at least one control device (55; 55A; 55B; 55C) comprises at least one control valve with a control piston part which is guided in a cylinder part and by means of which a cross-section of a blow moulding air duct is capable of being closed, characterized in that the control device (55; 55A; 55B; 55C) has a drive unit (61; 77) operating in an electromagnetic manner in order to effect a change in position of the control piston part inside the cylinder part and thus also to control the blow moulding pressures and/or volume flows at the blow moulding stations, and the drive unit (61; 77) operating in an electromagnetic manner comprises a measurement and detection unit by means of which the position of the control piston part and/or the change in position of the control piston part is or are capable of being determined.
An agricultural working machine with a driver assistance system to which data from an external data source can be transferred by means of a data transfer system, wherein, based on data transferred between the data source and the driver assistance system of the agricultural working machine, at least one setting procedure can be initiated on the agricultural working machine, wherein a conflict may arise between the setting procedure which can be carried out on the agricultural working machine based on the transferred data and a currently used setting and/or a currently set processing strategy for this agricultural working machine, wherein a conflict arises in the case in which the setting procedure which can be carried out based on the transferred data is in disagreement with a currently used setting and/or a currently set processing strategy and carrying out this setting procedure would lead to an adverse effect on the processing procedure for the agricultural working machine and/or is in disagreement with the set processing strategy, characterized in that conflict processing strategies are stored in at least the driver assistance system which receives the data, wherein the conflict can be prevented or eliminated by executing at least one of the stored conflict processing strategies, wherein, in a conflict test, the driver assistance system tests the setting procedure to be carried out on the basis of the transferred data for a conflict with a currently used setting and/or a currently set processing strategy.
A method comprising: measuring a first set of reference signals for radio link monitoring; receiving an indication of at least one physical uplink control channel resource and at least one physical random access channel resource for transmitting a beam failure recovery request, wherein each of the at least one physical uplink control channel resource and the at least one physical random access channel resource are associated with at least one downlink antenna port; and determining an association between the at least one physical uplink control channel resource, the at least one physical random access channel resource, and the at least one downlink antenna port based on the indication of the at least one physical uplink control channel resource and the at least one physical random access channel resource for transmitting the beam failure recovery request; receiving an indication of a second set of reference signals for radio link monitoring; and resetting a counter in response to reception of the indication of the second set of reference signals; wherein the first set of reference signals is associated with a first set of downlink antenna ports, the second set of reference signals is associated with a second set of downlink antenna ports, and the first set of downlink antenna ports is different from the second set of downlink antenna ports. measuring a first set of reference signals for radio link monitoring; receiving an indication of at least one physical uplink control channel resource and at least one physical random access channel resource for transmitting a beam failure recovery request, wherein each of the at least one physical uplink control channel resource and the at least one physical random access channel resource are associated with at least one downlink antenna port; and determining an association between the at least one physical uplink control channel resource, the at least one physical random access channel resource, and the at least one downlink antenna port based on the indication of the at least one physical uplink control channel resource and the at least one physical random access channel resource for transmitting the beam failure recovery request; receiving an indication of a second set of reference signals for radio link monitoring; and resetting a counter in response to reception of the indication of the second set of reference signals; wherein the first set of reference signals is associated with a first set of downlink antenna ports, the second set of reference signals is associated with a second set of downlink antenna ports, and the first set of downlink antenna ports is different from the second set of downlink antenna ports.
A latching device for a part of a window, a door or the like, which is movable against a frame, consisting of a housing arranged on the frame with a sliding guide, in which a slide element guided partially movably coupled with an opening- and closing movement of the moving part is arranged, wherein the slide element has a first hook on a first end, which is suitable for catching a catch element arranged in a fixed manner on the moving part, with a latching means, which is suitable for defining a number of positions of the slide element and with a latching body, which is pre-tensioned in a guide spring-elastically against the latching means, wherein the sliding guide is inclined at a first angle in respect to an axis parallel to the opening- and closing movement of the movable part, characterized in that the guide of the latching body is arranged directly in the housing and is inclined relative to the sliding guide at a second angle, so that the pressure of the latching body acts on the slide element in the direction of the closed end of the sliding guide and that the latching means is arranged along the slide element and consists of a plurality of latching recesses, so that the latching positions of the moving part in gap-opened positions are possible.