mhurhangee/ep-ind-claims huggingface dataset:
A heat source unit connectable to a utilization-side unit and configured to perform a refrigeration cycle, the heat source unit comprising: a low-stage compressor; a high-stage compressor configured to suck and compress a refrigerant discharged from the low-stage compressor; a four-way switching valve configured to switch a flow path of the refrigerant sucked into the low-stage compressor and a flow path of the refrigerant discharged from the high-stage compressor; a controller configured to control the components of the heat source unit; and a low-stage pipe which is provided in parallel with the low-stage compressor and through which the refrigerant is flowable while the low-stage compressor is stopped; wherein the controller is configured to output an instruction signal for activating the four-way switching valve while the low-stage compressor is stopped and the high-stage compressor is operating, a suction pipe through which the refrigerant sucked into the low-stage compressor is flowable; a discharge pipe through which the refrigerant discharged from the high-stage compressor is flowable; characterized in that the heat source unit further comprises: a bypass pipe connecting the suction pipe and the discharge pipe; and a control valve provided in the bypass pipe and having a variable opening degree, wherein the controller is configured to output the instruction signal to the four-way switching valve after opening the control valve. a low-stage compressor; a high-stage compressor configured to suck and compress a refrigerant discharged from the low-stage compressor; a four-way switching valve configured to switch a flow path of the refrigerant sucked into the low-stage compressor and a flow path of the refrigerant discharged from the high-stage compressor; a controller configured to control the components of the heat source unit; and a low-stage pipe which is provided in parallel with the low-stage compressor and through which the refrigerant is flowable while the low-stage compressor is stopped; wherein the controller is configured to output an instruction signal for activating the four-way switching valve while the low-stage compressor is stopped and the high-stage compressor is operating, a suction pipe through which the refrigerant sucked into the low-stage compressor is flowable; a discharge pipe through which the refrigerant discharged from the high-stage compressor is flowable; characterized in that the heat source unit further comprises: a bypass pipe connecting the suction pipe and the discharge pipe; and a control valve provided in the bypass pipe and having a variable opening degree, wherein the controller is configured to output the instruction signal to the four-way switching valve after opening the control valve.
Device for pressing a non-hardened concrete composition into a desired form, whereby the device comprises an upper plate with one or more first cavities that run through the upper plate, a moulding plate with one or more second cavities whereby the upper plate is located directly above the moulding plate, a bottom plate located under the moulding plate whereby the bottom plate closes the one or more second cavities on the bottom, whereby the upper plate and the moulding plate are arranged to move horizontally in relation to each other between a first position in which the one or more first cavities are directly and exactly above the one or more second cavities and a second position in which the one or more first cavities are not above the one or more second cavities, whereby the thickness of the upper plate and not the thickness of the moulding plate is decisive for the thickness of the final article (12,13), whereby the device comprises one or more stamps arranged to move vertically to press the non-hardened concrete composition, whereby the stamps are located above the one or more second cavities, characterised in that the moulding plate is arranged to move vertically between a lowest setting, whereby the moulding plate closes the one or more second cavities at the bottom, and a highest setting, whereby the non-hardened concrete articles are removed from the second cavities, whereby the upper plate and the moulding plate are arranged to move vertically together, or alternatively whereby the moulding plate and the upper plate remain in position and the bottom plate is arranged to move upwards against the bottom of the moulding plate to close of the second cavities and downwards to remove the concrete articles from the second cavities, or alternatively a combination of both arrangements, whereby the moulding plate is arranged to move upwards together with the upper plate and the bottom plate is arranged to move downwards or vice versa.
A method for receiving downlink control information in a wireless communication system supporting Device-to-Device, D2D, communication, the method performed by a first user equipment, UE, and comprising: receiving, from a base station, the downlink control information for the D2D communication; transmitting, to a second UE, a D2D scheduling assignment, SA, for the D2D communication based on the downlink control information; and transmitting, to the second UE, a D2D data for the D2D communication based on the downlink control information, wherein the downlink control information comprises: a hopping flag field indicating whether frequency hopping is applicable when transmitting the D2D SA and the D2D data, a first resource allocation, RA, field including scheduling information for the D2D SA; a second RA field including a Resource Indication Value, RIV, indicating a starting resource block index for the D2D data transmission and length in terms of allocated resource blocks; a third RA field including information indicating a time resource pattern used for the D2D data transmission; and a single Transmission Power Control, TPC, field to be applied to both transmission power for the D2D SA and transmission power for the D2D data, and wherein the transmission power for the D2D SA and the transmission power for the D2D data are independently determined using individual power parameters based on the single TPC field. receiving, from a base station, the downlink control information for the D2D communication; transmitting, to a second UE, a D2D scheduling assignment, SA, for the D2D communication based on the downlink control information; and transmitting, to the second UE, a D2D data for the D2D communication based on the downlink control information, wherein the downlink control information comprises: a hopping flag field indicating whether frequency hopping is applicable when transmitting the D2D SA and the D2D data, a first resource allocation, RA, field including scheduling information for the D2D SA; a second RA field including a Resource Indication Value, RIV, indicating a starting resource block index for the D2D data transmission and length in terms of allocated resource blocks; a third RA field including information indicating a time resource pattern used for the D2D data transmission; and a single Transmission Power Control, TPC, field to be applied to both transmission power for the D2D SA and transmission power for the D2D data, and wherein the transmission power for the D2D SA and the transmission power for the D2D data are independently determined using individual power parameters based on the single TPC field.
A vinylidene fluoride resin film comprising a film composition comprising a vinylidene fluoride resin and inorganic particles, wherein the vinylidene fluoride resin film comprises a plurality of protrusions on at least one surface thereof; among the plurality of protrusions, the number of protrusions greater than 0.10 μm in height from a flat surface at which the protrusions are not present is from 7.0 to 50 per 0.10 mm 2 of the vinylidene fluoride resin film; the vinylidene fluoride resin is a vinylidene fluoride homopolymer; average protrusion height and number of protrusions are determined as described in the description. the vinylidene fluoride resin film comprises a plurality of protrusions on at least one surface thereof; among the plurality of protrusions, the number of protrusions greater than 0.10 μm in height from a flat surface at which the protrusions are not present is from 7.0 to 50 per 0.10 mm 2 of the vinylidene fluoride resin film; the vinylidene fluoride resin is a vinylidene fluoride homopolymer; average protrusion height and number of protrusions are determined as described in the description.
A method for communication in a tactical network, said method comprising: detecting, by a first gateway, a tactical node; associating, by the first gateway, a global network address and a name with the tactical node; transmitting the global network address and the name to an address resolution server via a global network communication interface; storing first tactical node data received from the tactical node in a memory area; transmitting a data availability message to a second gateway via a tactical network communication interface, the data availability message including metadata describing the first tactical node data; receiving from the second gateway a request for the first tactical node data; transmitting the first tactical node data from the memory area to the second gateway; storing second tactical node data received from the tactical node in the memory area; creating an access pattern based on a plurality of requests for the first tactical node data and a plurality of requests for the second tactical node data; and if the access pattern indicates the second tactical node data is correlated with the first tactical node data, transmitting the second tactical node data to the second gateway based on the received request without receiving a request for the second tactical node data from the second gateway. detecting, by a first gateway, a tactical node; associating, by the first gateway, a global network address and a name with the tactical node; transmitting the global network address and the name to an address resolution server via a global network communication interface; storing first tactical node data received from the tactical node in a memory area; transmitting a data availability message to a second gateway via a tactical network communication interface, the data availability message including metadata describing the first tactical node data; receiving from the second gateway a request for the first tactical node data; transmitting the first tactical node data from the memory area to the second gateway; storing second tactical node data received from the tactical node in the memory area; creating an access pattern based on a plurality of requests for the first tactical node data and a plurality of requests for the second tactical node data; and if the access pattern indicates the second tactical node data is correlated with the first tactical node data, transmitting the second tactical node data to the second gateway based on the received request without receiving a request for the second tactical node data from the second gateway.
A method comprising: receiving code at a platform for an application, wherein the application is an Android application; running the application; accessing runtime layer data for the application; wherein the runtime layer data includes internal runtime information from a binary object file of an Android runtime layer; generating static diagnostic and advisory data based on the runtime layer data, and storing the generated static diagnostic and advisory data in a diagnostic and advisory database; receiving dynamic runtime information, generated based upon reading in-memory binary object file segments and library details, for the application from operation of the application on one or more user systems; generating dynamic diagnostic and advisory information based on the received dynamic runtime information, and storing the generated dynamic diagnostic and advisory data in the diagnostic and advisory database; and wherein dynamic runtime information for the application is generated by a daemon running on each of the one or more user systems, using the static and dynamic diagnostic and advisory data to recompile the application. receiving code at a platform for an application, wherein the application is an Android application; running the application; accessing runtime layer data for the application; wherein the runtime layer data includes internal runtime information from a binary object file of an Android runtime layer; generating static diagnostic and advisory data based on the runtime layer data, and storing the generated static diagnostic and advisory data in a diagnostic and advisory database; receiving dynamic runtime information, generated based upon reading in-memory binary object file segments and library details, for the application from operation of the application on one or more user systems; generating dynamic diagnostic and advisory information based on the received dynamic runtime information, and storing the generated dynamic diagnostic and advisory data in the diagnostic and advisory database; and wherein dynamic runtime information for the application is generated by a daemon running on each of the one or more user systems, using the static and dynamic diagnostic and advisory data to recompile the application.
Operating element, comprising: an actuating lever which is mounted pivotably about a first pivot axis and a second pivot axis which is orthogonal with respect to the first pivot axis, with a section which faces the operator with regard to the first pivot axis, and with an operating lever section which faces away from the operator; a driver lever which is mounted such that it can be pivoted about a driver pivot axis along a pivoting direction; a first magnet, preferably a permanent magnet, which is fastened rigidly to the driver lever, a plurality of stationary, second magnets, preferably permanent magnets, which are arranged in such a way that the first magnet crosses the magnetic fields of the second magnet during pivoting of the driver lever, in order to generate haptic feedback at the actuating lever; a first operating engagement means (2b, 8b) between the actuating lever section and the driver lever being provided, in order to bring about synchronous pivoting of the actuating lever and the driver lever, characterized in that the driver lever is mounted such that it can be moved perpendicularly with respect to its pivoting direction, in order, by means of the first operative engagement means or by means of a second operative engagement means (2c, 8c) between the actuating lever section and the driver lever, to bring about a synchronous movement of the driver lever by way of pivoting of the actuating lever about the second pivot axis. an actuating lever which is mounted pivotably about a first pivot axis and a second pivot axis which is orthogonal with respect to the first pivot axis, with a section which faces the operator with regard to the first pivot axis, and with an operating lever section which faces away from the operator; a driver lever which is mounted such that it can be pivoted about a driver pivot axis along a pivoting direction; a first magnet, preferably a permanent magnet, which is fastened rigidly to the driver lever, a plurality of stationary, second magnets, preferably permanent magnets, which are arranged in such a way that the first magnet crosses the magnetic fields of the second magnet during pivoting of the driver lever, in order to generate haptic feedback at the actuating lever; a first operating engagement means (2b, 8b) between the actuating lever section and the driver lever being provided, in order to bring about synchronous pivoting of the actuating lever and the driver lever, characterized in that the driver lever is mounted such that it can be moved perpendicularly with respect to its pivoting direction, in order, by means of the first operative engagement means or by means of a second operative engagement means (2c, 8c) between the actuating lever section and the driver lever, to bring about a synchronous movement of the driver lever by way of pivoting of the actuating lever about the second pivot axis.
A composition comprising a population of immune effector cells engineered to express a CAR for use, in combination with an LSD1 inhibitor, in a method of treating a disease associated with the expression of a tumor antigen in a subject, said method comprising administering to said subject an LSD1 inhibitor and a population of immune effector cells engineered to express a CAR, wherein the population of immune effector cells comprises, e.g., consists of, T cells, wherein the disease associated with expression of a tumor antigen is chosen from a proliferative disease, a precancerous condition, and a cancer.
An electronic device comprising: a connector, which is connected to an external device; a notification unit; a control unit, wherein, when incoming communication is received in a state where the connector is connected to the external device, the control unit is configured to suppress notification by the notification unit, to transmit a signal indicating receipt of the incoming communication to the external device via the connector, and to control the external device to perform notification of the incoming communication; and a storage unit for storing a plurality of applications, wherein, when incoming communication is received in a state where the connector is connected to the external device, in a case in which a predetermined application is running, the control unit is configured not to suppress notification by the notification unit. a connector, which is connected to an external device; a notification unit; a control unit, wherein, when incoming communication is received in a state where the connector is connected to the external device, the control unit is configured to suppress notification by the notification unit, to transmit a signal indicating receipt of the incoming communication to the external device via the connector, and to control the external device to perform notification of the incoming communication; and a storage unit for storing a plurality of applications, wherein, when incoming communication is received in a state where the connector is connected to the external device, in a case in which a predetermined application is running, the control unit is configured not to suppress notification by the notification unit.
Compaction station with at least one compacting device for compacting open-mouth bags filled with bulk materials, the compacting device comprising a container with a tubular inner wall and a takeup space for taking up a filled open-mouth bag, and a support unit on a height-displaceable lifting device, characterized in that the support unit is supported from beneath in a lowered position of the lifting device, and in an elevated position it is suitable for taking over a filled open-mouth bag from an adjacent conveyor device, and that a pressure plug that can be lowered from above is comprised, which in a lowered position acts on the bulk material from above and in an elevated position, allows takeover of a filled open-mouth bag from an adjacent conveyor device.
Compounds of formula in which z is 1 or 2, n is 2 or 3, y is each independently 0, 1, 2, 3 or 4, R is each independently halogen, CN, CF 3, OR', (CH 2) m -COOR', a straight-chain or branched alkyl group with 1 to 20 C atoms, a straight-chain or branched alkenyl group with 2 to 20 C atoms or a straight-chain or branched alkynyl group with 2 to 20 C atoms, wherein two or more adjacent CH 2 -groups within the substituent (CH 2) m -COOR' can optionally be replaced with (-CH=CH-), m is a number from 0 to 20 and R' is H or a straight-chain or branched alkyl group with 1 to 20 C atoms, a straight-chain or branched alkenyl group with 2 to 20 C atoms or a straight-chain or branched alkynyl group with 2 to 20 C atoms. z is 1 or 2, n is 2 or 3, y is each independently 0, 1, 2, 3 or 4, R is each independently halogen, CN, CF 3, OR', (CH 2) m -COOR', a straight-chain or branched alkyl group with 1 to 20 C atoms, a straight-chain or branched alkenyl group with 2 to 20 C atoms or a straight-chain or branched alkynyl group with 2 to 20 C atoms, wherein two or more adjacent CH 2 -groups within the substituent (CH 2) m -COOR' can optionally be replaced with (-CH=CH-), m is a number from 0 to 20 and R' is H or a straight-chain or branched alkyl group with 1 to 20 C atoms, a straight-chain or branched alkenyl group with 2 to 20 C atoms or a straight-chain or branched alkynyl group with 2 to 20 C atoms.
A lithographic printing plate precursor including on a substrate which has a hydrophilic surface or which is provided with a hydrophilic layer, a coating comprising a photopolymerisable layer including a polymerisable compound, a photoinitiator and an adhesion promoting compound, characterised in that the adhesion promoting compound contains at least one thiol group and at least one group capable of adhering to the substrate selected from a phosphate group or a phosphonate group.
A system of pipe handling robots for handling drill pipe on a drill rig, the system comprising: a boom pivotally supported at a location outside a setback area of a drill floor and extending to a free cantilevered end, the setback area including a driller's side, an off-driller's side, and an aisle therebetween, the boom configured to swing about a vertical axis and across the drill floor; a first pipe handling robot mounted on the free cantilevered end of the boom and configured to pivot about a vertical axis relative to the boom end, and configured for manipulating a bottom end a pipe stand between the setback area on the drill floor and well center; and a second pipe handling robot arranged at or near a racking board of the drill rig and configured for manipulating a top end of the pipe stand between the racking board and well center. a boom pivotally supported at a location outside a setback area of a drill floor and extending to a free cantilevered end, the setback area including a driller's side, an off-driller's side, and an aisle therebetween, the boom configured to swing about a vertical axis and across the drill floor; a first pipe handling robot mounted on the free cantilevered end of the boom and configured to pivot about a vertical axis relative to the boom end, and configured for manipulating a bottom end a pipe stand between the setback area on the drill floor and well center; and a second pipe handling robot arranged at or near a racking board of the drill rig and configured for manipulating a top end of the pipe stand between the racking board and well center.