mhurhangee/ep-ind-claims huggingface dataset:
A refrigerant recovery and recharge device adapted to be connected to refrigeration equipment, - said device comprising at least a valve block, an accumulator, a compressor and a tank, said device comprises a first flow path adapted to recover refrigerant from said refrigeration equipment and a second flow path adapted to recharge refrigerant to said refrigeration equipment, - wherein the valve block is connected to the tank by means of the first flow path and wherein the compressor and the accumulator are located in the first flow path, - wherein the valve block is directly connected to the tank by means of the second flow path, - wherein the device further comprises: - a third flow path adapted to redirect refrigerant from said tank to said accumulator, wherein the third flow path connects the tank with the accumulator such that the refrigerant can be circulated between the tank and the accumulator by means of the first and the third flow path (22, 26); - at least one valve located in said third flow path adapted to be actuated in a manner that allows circulation of the refrigerant between said tank and said accumulator; and - a control unit adapted to control actuation of said at least one valve. - said device comprising at least a valve block, an accumulator, a compressor and a tank, said device comprises a first flow path adapted to recover refrigerant from said refrigeration equipment and a second flow path adapted to recharge refrigerant to said refrigeration equipment, - wherein the valve block is connected to the tank by means of the first flow path and wherein the compressor and the accumulator are located in the first flow path, - wherein the valve block is directly connected to the tank by means of the second flow path, - wherein the device further comprises: - a third flow path adapted to redirect refrigerant from said tank to said accumulator, wherein the third flow path connects the tank with the accumulator such that the refrigerant can be circulated between the tank and the accumulator by means of the first and the third flow path (22, 26); - at least one valve located in said third flow path adapted to be actuated in a manner that allows circulation of the refrigerant between said tank and said accumulator; and - a control unit adapted to control actuation of said at least one valve. - a third flow path adapted to redirect refrigerant from said tank to said accumulator, wherein the third flow path connects the tank with the accumulator such that the refrigerant can be circulated between the tank and the accumulator by means of the first and the third flow path (22, 26); - at least one valve located in said third flow path adapted to be actuated in a manner that allows circulation of the refrigerant between said tank and said accumulator; and - a control unit adapted to control actuation of said at least one valve.
Pneumatic vehicle tyre with a tread which, as seen when the tyre is fitted on the vehicle, has a profile band which is arranged at the outer shoulder and is separated from other profile elements by a circumferential groove running around in the circumferential direction, wherein a multiplicity of transverse grooves, extending at least substantially parallel to one another and comprising multiple groove portions (4, 5, 6, 6') that extend at an angle in relation to one another is provided in the shoulder-side profile band, characterized in that the transverse grooves in the outer shoulder region are made up of three groove portions (4, 5, 6, 6'), wherein the two outer groove portions (4, 6, 6') extend at least substantially in the axial direction and the middle groove portion, connecting said outer groove portions, extends in relation to the two outer groove portions (4, 6, 6') in each case at an obtuse angle (β, β'), which is a maximum of 135°, wherein the outer groove portions (4, 6, 6') have in each case a groove flank (7, 14) that extends at least substantially in the radial direction and a groove flank (7, 14) which is made up of a flank portion (7'a, 14'a) that extends at least substantially in the radial direction and a bevel (8, 12), wherein the middle groove portion is formed by two bevels (9, 10), wherein the bevels (8, 12) in the outer groove portions (4, 5, 6, 6') reach to a depth, determined in the radial direction, which is a specific percentage value, equal for these bevels (8, 12), of the respective or the greatest depth of these groove portions (4, 5, 6, 6'), and wherein the bevels (9, 10) that form the middle groove portion reach to a depth which at least substantially corresponds to the depth of the bevels (8, 12) of the outer groove portions (4, 6, 6') at the corner regions thereof to the middle groove portion.
A fabricating method of an electrode assembly comprising: forming a radical unit having a four-layered structure obtained by stacking a first electrode, a first separator, a second electrode, and a second separator one by one or a radical unit having an eight-layered structure formed by stacking the first electrode, the first separator, the second electrode, the second separator, the first electrode, the first separator, the second electrode and the second separator one by one; stacking at least two radical units one by one to form a unit stack part; and stacking a first auxiliary unit on a first distal end electrode, the first distal end electrode being the first electrode positioned at an uppermost or a lowermost portion of the unit stack part, wherein the first electrode is a cathode, and the second electrode is an anode, the first auxiliary unit is formed by stacking from the first distal end electrode, the separator, the anode, and the separator one by one. forming a radical unit having a four-layered structure obtained by stacking a first electrode, a first separator, a second electrode, and a second separator one by one or a radical unit having an eight-layered structure formed by stacking the first electrode, the first separator, the second electrode, the second separator, the first electrode, the first separator, the second electrode and the second separator one by one; stacking at least two radical units one by one to form a unit stack part; and stacking a first auxiliary unit on a first distal end electrode, the first distal end electrode being the first electrode positioned at an uppermost or a lowermost portion of the unit stack part, wherein the first electrode is a cathode, and the second electrode is an anode, the first auxiliary unit is formed by stacking from the first distal end electrode, the separator, the anode, and the separator one by one.
A computer-implemented method of designing a contact lens comprising: generating a lens design by generating a lens power profile, wherein the lens power at any location in the optical zone is described by subtracting a pre orthokeratology treatment radial power map from a post orthokeratology treatment radial power map, wherein the radial power maps are based on wavefront or corneal topology data acquired before and after orthokeratology treatment, to generate a wavefront or corneal topography derived power at each location (x). generating a lens design by generating a lens power profile, wherein the lens power at any location in the optical zone is described by subtracting a pre orthokeratology treatment radial power map from a post orthokeratology treatment radial power map, wherein the radial power maps are based on wavefront or corneal topology data acquired before and after orthokeratology treatment, to generate a wavefront or corneal topography derived power at each location (x).
A tire comprising: a carcass arranged between a pair of bead parts; a plurality of belt layers including a circumferential belt layer with a cord extending along a tire circumferential direction and arranged outside the carcass in a tire radial direction; at least one protective layer with an organic fiber cord extending along the tire circumferential direction and arranged outside the plurality of belt layers in the tire radial direction and in the tire width direction; and a tread rubber arranged outside the protective layer in the tire radial direction; wherein the circumferential belt layer is provided at least at the outermost side in the tire radial direction in the plurality of belt layers, characterized in that an end of the protective layer is arranged on the inner side in the tire radial direction than the plurality of belt layers, in a region outer in the tire width direction than an outermost end of the plurality of belt layers located at the outermost side in the tire width direction, and in that the cord of the circumferential belt layer is a wave-shaped cord meanderingly extending along the tire circumference direction. a carcass arranged between a pair of bead parts; a plurality of belt layers including a circumferential belt layer with a cord extending along a tire circumferential direction and arranged outside the carcass in a tire radial direction; at least one protective layer with an organic fiber cord extending along the tire circumferential direction and arranged outside the plurality of belt layers in the tire radial direction and in the tire width direction; and a tread rubber arranged outside the protective layer in the tire radial direction; wherein the circumferential belt layer is provided at least at the outermost side in the tire radial direction in the plurality of belt layers, characterized in that an end of the protective layer is arranged on the inner side in the tire radial direction than the plurality of belt layers, in a region outer in the tire width direction than an outermost end of the plurality of belt layers located at the outermost side in the tire width direction, and in that the cord of the circumferential belt layer is a wave-shaped cord meanderingly extending along the tire circumference direction.
A method for transmitting uplink control information, UCI, the method comprising: a wireless transmit receive unit, WTRU, receiving a radio resource control, RRC message, wherein the RRC message comprises information indicating physical uplink shared channel, PUSCH, resources for the WTRU, and the RRC message indicates whether or not uplink control information, UCI, can be multiplexed with data on the PUSCH resources; the WTRU determining to transmit first UCI during a time period that overlaps with a transmission opportunity associated with the PUSCH resources; and the WTRU transmitting the first UCI wherein the WTRU multiplexes the first UCI on the PUSCH resources associated with the transmission opportunity if the RRC message indicates that UCI can be multiplexed with data on the PUSCH resources, and the WTRU transmits the first UCI on one or more physical uplink control channel, PUCCH, resources if the RRC message indicates that UCI cannot be multiplexed with data on the PUSCH resources. the WTRU determining to transmit first UCI during a time period that overlaps with a transmission opportunity associated with the PUSCH resources; and the WTRU transmitting the first UCI wherein the WTRU multiplexes the first UCI on the PUSCH resources associated with the transmission opportunity if the RRC message indicates that UCI can be multiplexed with data on the PUSCH resources, and the WTRU transmits the first UCI on one or more physical uplink control channel, PUCCH, resources if the RRC message indicates that UCI cannot be multiplexed with data on the PUSCH resources.
An operating handle for an opening, in particular an opening in a vehicle, such handle comprising a gripper element integral with drive means (4a, 4b) intended to engage on a control pin of a lock of the opening, such handle comprising means (14, 18) enabling at least one part of the gripper element to swivel without breaking and this with respect to a pivot pin (8, 19) perpendicular to the control pin further to a calibrated tension exerted on the gripper element by a component parallel to the control pin, the gripper element remaining manoeuvrable after such swivelling, wherein the drive means comprise two parts: a bush fitted to the control pin and incorporating an internal profile cooperating with the control pin so as to make it integral in rotation with the bush, and a sleeve integral with the gripper element and hinged with respect to the bush at the swivel axis, the means enabling such swivelling being constituted by this hinge associated with means that enable swivelling at the hinge only for a calibrated tension exerted on the gripper element.
Use of a composition comprising at least one polyglycerol ester and preferably at least one emulsifier as carrier for at least one active microbiological ingredient, characterized in that the at least one emulsifier is selected from the group consisting of sorbitan fatty acid esters and ethoxylated sorbitan fatty acid esters, and further characterized in that the at least one active microbiological ingredient is selected from the group consisting of microorganisms, organs of microorganisms and mixtures thereof.
A display device comprising: a display panel comprising a side surface extending along a thickness direction of the display panel; on the side surface of the display panel: a pad through which an electrical signal is provided to the display panel from outside thereof; characterized by an electrically floating auxiliary layer in the same layer on the side surface of the display panel as the pad and spaced apart from the pad along the thickness direction of the display panel; a circuit member facing the side surface of the display panel and coupled to both the pad and the electrically floating auxiliary layer. a display panel comprising a side surface extending along a thickness direction of the display panel; on the side surface of the display panel: a pad through which an electrical signal is provided to the display panel from outside thereof; characterized by an electrically floating auxiliary layer in the same layer on the side surface of the display panel as the pad and spaced a pad through which an electrical signal is provided to the display panel from outside thereof; characterized by an electrically floating auxiliary layer in the same layer on the side surface of the display panel as the pad and spaced apart from the pad along the thickness direction of the display panel; a circuit member facing the side surface of the display panel and coupled to both the pad and the electrically floating auxiliary layer.
An oxidation and grafting method for grafting a bioactive polymer, such as PolyNaSS, onto an article, in particular a polymer or ceramic article, the method comprising a step for oxidation by ozonation and a step for grafting by radical polymerization in a polymerization station comprising a first reactor, the method being characterized in that the two steps for oxidation and grafting are carried out consecutively in different solutions in the reactor of the polymerization station.
An air traffic control system with improved switchover characteristics, wherein the air traffic control system comprises at least two air traffic control radios (12, 14), wherein the at least two air traffic control radios (12, 14) comprise a main radio and a backup radio such that the at least two air traffic control radios (12, 14) establish a failover group, and wherein the air traffic control system comprises a voice data buffer that is configured to buffer data associated with voice signals received, characterized in that the voice data buffer has an overall buffer capacity and an initial buffer capacity being a portion of the overall buffer capacity, wherein the air traffic control system is configured to initiate a switchover from the main radio to the backup radio in case of failure of the main radio, and wherein the switchover from the main radio to the backup radio is completed when the initial buffer capacity of the voice data buffer is filled.
A composition which increases GDF11 polypeptide in a subject for use in inhibiting or treating hepatosteatosis in the subject, wherein the composition comprises an effective amount of GDF11 polypeptide or a functional fragment or variant thereof.
A method for obtaining a tensile armor configuration of a flexible conduit, said flexible conduit comprising at least an internal tensile armor formed by a plurality of helically winding of wires and at least an external tensile armor formed by a plurality of helically winding wires, the external tensile armor is relatively superimposed to the internal tensile armor, said internal tensile armor is superimposed over a pressure armor, said pressure armor is superimposed in relation to an internal polymeric sealing layer, said flexible conduit having a free end, the method comprising the steps of: (a) cutting the external layers of the flexible pipe in relation to the external tensile armor in a first length towards the free end, so as to allow access to said external tensile armor, (b) cutting the wires of the external tensile armor and the wires of the internal tensile armor on a second length relative to the free end, wherein the second length is smaller than the first length, so as to allow access to the pressure armor and to define an extremity for each wire of the external tensile armor and an extremity for each wire of the internal tensile armor, (c) assembling an end ring engaged with the extremity (541a, 551a) of each wire (541, 551) of each tensile armor (54, 55), defining an initial position (pi), (d) axially displacing the end ring in the opposite direction of the free end, from the initial position (pi) until an end position (pf), so as to cause flexure in the wires (541, 551) of each tensile armor (54, 55), (e) fixing the end ring in the end position (pf), to maintain the wires (541, 551) of each tensile armor (54, 55) flexed. (a) cutting the external layers of the flexible pipe in relation to the external tensile armor in a first length towards the free end, so as to allow access to said external tensile armor, (b) cutting the wires of the external tensile armor and the wires of the internal tensile armor on a second length relative to the free end, wherein the second length is smaller than the first length, so as to allow access to the pressure armor and to define an extremity for each wire of the external tensile armor and an extremity for each wire of the internal tensile armor, (c) assembling an end ring engaged with the extremity (541a, 551a) of each wire (541, 551) of each tensile armor (54, 55), defining an initial position (pi), (d) axially displacing the end ring in the opposite direction of the free end, from the initial position (pi) until an end position (pf), so as to cause flexure in the wires (541, 551) of each tensile armor (54, 55), (e) fixing the end ring in the end position (pf), to maintain the wires (541, 551) of each tensile armor (54, 55) flexed.
Additive method for producing a dental working model for an articulator, comprising the steps of: additively producing a base plate (3, 3a, 3b) adapted to be attached to the articulator; additively producing a dental model (4, 4a, 4b); and additively producing a splint by means of which by inserting it between the base plate (3, 3a, 3b) and the dental model (4, 4a, 4b), the base plate (3, 3a, 3b) and the dental model (4, 4a, 4b) can be fixed to one another in a positionally secure manner, wherein the splint can be inserted at a distal end of the dental model (4, 4a, 4b) from buccal in the palantinal and/or medial direction. additively producing a base plate (3, 3a, 3b) adapted to be attached to the articulator; additively producing a dental model (4, 4a, 4b); and additively producing a splint by means of which by inserting it between the base plate (3, 3a, 3b) and the dental model (4, 4a, 4b), the base plate (3, 3a, 3b) and the dental model (4, 4a, 4b) can be fixed to one another in a positionally secure manner, wherein the splint can be inserted at a distal end of the dental model (4, 4a, 4b) from buccal in the palantinal and/or medial direction.
A method for fast loading a kernel image file, executed by a multi-core processor, wherein the multi-core processor is connected to a nonvolatile storage and a memory, the multi-core processor comprises a first core group and a second core group, the first core group comprises at least one core, the second core group comprises a plurality of cores, wherein the at least one core is a small core and the plurality of cores are large cores, wherein a large core is a core with a relatively high clock speed among all cores in the multi-core processor and a small core is a core with a relatively low clock speed among all the cores in the multi-core processor, and the method comprises: obtaining, by the first core group, a plurality of data blocks in a compressed kernel image file from the nonvolatile storage, wherein the compressed kernel image file comprises a plurality of data blocks obtained after block compression is performed on the kernel image file; checking, by the first core group each time obtaining a data block, the currently obtained current data block, and when it is checked that the data block is correct, putting, by the first core group, the current data block into a decompression queue; and obtaining, by at least two of the plurality of cores in the second core group when there is a data block in the decompression queue, the data block in the decompression queue, and after obtaining a plurality of data blocks, decompressing the plurality of obtained data blocks in parallel into the memory to finally obtain the kernel image file. obtaining, by the first core group, a plurality of data blocks in a compressed kernel image file from the nonvolatile storage, wherein the compressed kernel image file comprises a plurality of data blocks obtained after block compression is performed on the kernel image file; checking, by the first core group each time obtaining a data block, the currently obtained current data block, and when it is checked that the data block is correct, putting, by the first core group, the current data block into a decompression queue; and obtaining, by at least two of the plurality of cores in the second core group when there is a data block in the decompression queue, the data block in the decompression queue, and after obtaining a plurality of data blocks, decompressing the plurality of obtained data blocks in parallel into the memory to finally obtain the kernel image file.
A method for time synchronization by WiFi-direct, comprising steps of: acquiring, by a master device, information on standard date and time from a base station for time synchronization; establishing a WiFi-direct connection between the master device and a slave device; acquiring, by the slave device, the information on the standard date and time actively or passively from the master device through the WiFi-direct connection; characterized by calculating, by the slave device, actual standard date and time without the impact of a transmission delay using the information on the standard date and time, and setting local system date and time as the actual standard date and time, wherein the calculating, by the slave device, actual standard date and time without the impact of a transmission delay using the information on the standard date and time comprises: acquiring, by the slave device, the actual standard date and time by adding the transmission delay to the standard date and time, wherein information interaction between the master device and the slave device is based on a request-response mode, and the transmission delay is acquired by: calculating a difference between time of receiving a response to a request and time of sending the request; and dividing the difference by 2. acquiring, by a master device, information on standard date and time from a base station for time synchronization; establishing a WiFi-direct connection between the master device and a slave device; acquiring, by the slave device, the information on the standard date and time actively or passively from the master device through the WiFi-direct connection;