mhurhangee/ep-ind-claims huggingface dataset:
An electric machine including: a casing; a stator; a rotor generally coaxial with and surrounded by the stator; an enclosed cooling assembly circulating a first cooling fluid within the casing; an open cooling assembly through which a second cooling fluid can flow; the second cooling fluid cooling both the stator and the first cooling fluid, wherein the casing includes an assembly of walls generally coaxial with and surrounding the stator which includes an external wall, an intermediate wall and an internal wall adjacent to the stator; the enclosed cooling assembly including at least one first cooling path provided between the external wall and the intermediate wall where the first cooling fluid may circulate; and the open cooling assembly including a second cooling path provided between the intermediate wall and the inner wall where the second cooling fluid may circulate; whereby the second cooling fluid cools both the stator and the first cooling fluid, characterized in that the electric machine further comprises a gerotor pump so configured as to circulate the first cooling fluid within the casing. a casing; a stator; a rotor generally coaxial with and surrounded by the stator; an enclosed cooling assembly circulating a first cooling fluid within the casing; an open cooling assembly through which a second cooling fluid can flow; the second cooling fluid cooling both the stator and the first cooling fluid, wherein the casing includes an assembly of walls generally coaxial with and surrounding the stator which includes an external wall, an intermediate wall and an internal wall adjacent to the stator; the enclosed cooling assembly including at least one first cooling path provided between the external wall and the intermediate wall where the first cooling fluid may circulate; and the open cooling assembly including a second cooling path provided between the intermediate wall and the inner wall where the second cooling fluid may circulate; whereby the second cooling fluid cools both the stator and the first cooling fluid, characterized in that the electric machine further comprises a gerotor pump so configured as to circulate the first cooling fluid within the casing.
Rotating electric machine, in particular hydro generator, having a rotor which comprises a laminated core, having a rotor winding (15a, b), extending in the direction of a machine axis, wherein the rotor winding (15a, b) forms at the ends of the laminated core respectively one coil end, which is fastened, for the absorption of centrifugal forces, by means of bolts extending radially through the coil end, on a coil end rim adjoining in axial direction on the laminated core, disposed concentrically within the coil end, and wherein the fastening (16, 17, 18, 21) is designed for the secure reception of axial stretchings of the coil end, wherein the bolts on the coil end rim are fastened respectively on a T-hammer profile extending in axial direction, which is supported in axially slidable manner in a corresponding axial T-groove in the coil end rim, characterised in that additional coupling means (22, 23) are provided for the transmission of the axial stretchings of the coil end onto the T-hammer profile, which comprise a fixed mechanical coupling (22, 23) between the coil end and the T-hammer profile, and that the T-hammer profile engages behind the coil end with a radial part angled radially to the outside and on the radial part is connected by means of an axial connector with the coil end.
An anhydrous aerosol antiperspirant composition comprising less than 1% by weight of free water; propellant; particulate antiperspirant active; capsules comprising a shear-sensitive shell which encapsulates perfume; and a carrier for the particulate antiperspirant active and capsules; wherein the capsules have a shell of cross-linked gelatin coacervate having a thickness of from 0.25 to 9 μm and providing from 10 to 40% by weight of the capsules, a volume average particle diameter of from 25 to 70 μm, a ratio of shell thickness to the average particle diameter in the range of from 1:5 to 1:120, and a Hysitron hardness, measured in a Hysitron Tribo-indenter fitted with a Berkovich tip and programmed to perform an indent by compressing a sample with an initial contact force of 75 μN, for 10 seconds, followed by a position hold stage for 10 seconds, in the range of from 1.5 MPa to 50 MPa.
A car snow brush comprising: an elongated handle with a gripping area, and bristles protruding from the elongated handle, the bristles consisting of elongated and flat strips, which are manufactured of a plastic material, and are arranged in at least two rows (9, 10) such that inner larger side surfaces of the strips in a first row face inner larger side surfaces of the strips in a second row, characterized in that the at least two rows (9, 10) are separated from each other by a gap which is larger than the thickness (d) of the strips. an elongated handle with a gripping area, and bristles protruding from the elongated handle, the bristles consisting of elongated and flat strips, which are manufactured of a plastic material, and are arranged in at least two rows (9, 10) such that inner larger side surfaces of the strips in a first row face inner larger side surfaces of the strips in a second row, characterized in that the at least two rows (9, 10) are separated from each other by a gap which is larger than the thickness (d) of the strips.
Trailer coupling for a vehicle, in particular for an agricultural tractor, wherein the trailer coupling has a frame which is fixed to the vehicle and on which a rearwardly directed pivot arm is held so as to be pivotable between a lowered coupling position and a raised transport position, and the pivot arm has side walls on which there is supported at least one guide in which there is displaceably supported a sliding carriage which bears a coupling member, wherein the at least one guide has at least two U-shaped profile bodies (15, 16) which have side webs (17, 18) and a transverse web connecting said side webs, wherein the side webs (17, 18) are connected to the side walls of the pivot arm, wherein one U-shaped profile body is arranged at the bottom and the other profile body is arranged at the top, wherein the lower profile body is longer than the upper profile body and the side webs (17, 18) of the lower profile body (15, 16) are of stepped form, wherein the step is provided with a rounding, characterized in that the upper profile body is designed to fit together with the lower profile body, such that the upper profile body fits into the step, and wherein the profile bodies (15, 16) are welded to one another.
A method performed by a transmission device in a wireless communication system, the method comprising: identifying whether uplink data compression, UDC, is configured by a radio resource control, RRC, message, in case that Ethernet header compression, EHC, is not configured; in case that the UDC is configured by the RRC message, transmitting, to a reception device, first data compressed based on the UDC; pre-processing packet data convergence protocol, PDCP, protocol data units, PDUs, based on a UDC buffer, wherein the UDC buffer is associated with compression of the first data; receiving, from the reception device, an indicator indicating a checksum failure for decompression of the transmitted first data; initializing the UDC buffer based on the indicator; and discarding a PDCP data PDU except for a PDCP control PDU among the pre-processed PDCP PDUs based on a discard indicator, wherein the discard indicator is submitted from a PDCP layer to a layer lower than the PDCP layer. identifying whether uplink data compression, UDC, is configured by a radio resource control, RRC, message, in case that Ethernet header compression, EHC, is not configured; in case that the UDC is configured by the RRC message, transmitting, to a reception device, first data compressed based on the UDC; pre-processing packet data convergence protocol, PDCP, protocol data units, PDUs, based on a UDC buffer, wherein the UDC buffer is associated with compression of the first data; receiving, from the reception device, an indicator indicating a checksum failure for decompression of the transmitted first data; initializing the UDC buffer based on the indicator; and discarding a PDCP data PDU except for a PDCP control PDU among the pre-processed PDCP PDUs based on a discard indicator, wherein the discard indicator is submitted from a PDCP layer to a layer lower than the PDCP layer.
Method comprising the following steps: subjecting the subject to a visual test requiring at least one eye of the subject to make at least one return sweep (A, B, L); during said task, recording the movements of the eye of the subject using a device for tracking eye movements; determining, using a digital processing device and in the obtained recordings, return saccades (A 1, A 2, B 1 -B 4, composing all or some of the at least one return sweep of the eye of the subject; computing at least one return-saccade parameter (18, N mean, G mean, Δ) from the recordings corresponding to the determined return saccades, method wherein the at least one return-saccade parameter is dependent on a number (N A, N B, N L) of return saccades making up a given return sweep (A, B, L) and comprises a mean number (N mean) of returns saccades over a plurality of return sweeps. subjecting the subject to a visual test requiring at least one eye of the subject to make at least one return sweep (A, B, L); during said task, recording the movements of the eye of the subject using a device for tracking eye movements; determining, using a digital processing device and in the obtained recordings, return saccades (A 1, A 2, B 1 -B 4, composing all or some of the at least one return sweep of the eye of the subject; computing at least one return-saccade parameter (18, N mean, G mean, Δ) from the recordings corresponding to the determined return saccades, method wherein the at least one return-saccade parameter is dependent on a number (N A, N B, N L) of return saccades making up a given return sweep (A, B, L) and comprises a mean number (N mean) of returns saccades over a plurality of return sweeps.
A method of using optical scattering to determine the concentration of particles in a container or a vessel by positioning a sensor next to said container or vessel, wherein the sensor comprises a first source of light and a first detector, which method comprises: irradiating a medium of interest with the first source of light comprising a first optical axis, wherein the light has a wavelength absorbed by the medium of interest, and wherein the light absorbance of the light is characterized by a mean absorption path length in the medium; selecting the wavelength of the light so that a distance between an optical interface with the medium and a stationary object in the medium falling within an emission cone of the first light source, is greater than the mean absorption path length; detecting light scattered by the particles in the medium using the first detector comprising a second optical axis; providing a spatial separation between the first and second optical axes of the first light source and the first detector at the optical interface between the container or vessel and the medium at least 2-fold less than the mean absorption path length; and, correlating the detected light to the concentration of the particles, wherein a sensor geometry is configured according to the properties of the container or vessel, such that the source-detector separation is selected to minimize window backreflections due to the emission cone overlapping with a detection cone of the first detector within the window, and to maximize the range of sensitivity to changes in particle concentration. irradiating a medium of interest with the first source of light comprising a first optical axis, wherein the light has a wavelength absorbed by the medium of interest, and wherein the light absorbance of the light is characterized by a mean absorption path length in the medium; selecting the wavelength of the light so that a distance between an optical interface with the medium and a stationary object in the medium falling within an emission cone of the first light source, is greater than the mean absorption path length; detecting light scattered by the particles in the medium using the first detector comprising a second optical axis; providing a spatial separation between the first and second optical axes of the first light source and the first detector at the optical interface between the container or vessel and the medium at least 2-fold less than the mean absorption path length; and, correlating the detected light to the concentration of the particles, wherein a sensor geometry is configured according to the properties of the container or vessel, such that the source-detector separation is selected to minimize window backreflections due to the emission cone overlapping with a detection cone of the first detector within the window, and to maximize the range of sensitivity to changes in particle concentration.
Apparatus for assessing field distortion, comprising: a moveable hand-held probe (56, 73), comprising: a mechanical fixture (70, 75) for placement at a location to be tested; one or more field generators (62A-B, 62C-E), which are attached to the mechanical fixture and are arranged to generate respective magnetic fields; and one or more field sensors (60A-B, 66C-E), which are attached to the mechanical fixture at known positions with respect to the one or more field generators and are arranged to sense the magnetic fields generated by the one or more field generators and to output signals responsively to the sensed magnetic fields; and a processor, which is arranged to assess a distortion of the magnetic fields sensed by the field sensors at the tested location by comparing the signals to reference values determined in the absence of the distortion to thereby estimate a level of the field distortion, wherein the processor is arranged to evaluate an effect of the distortion on position measurements made by a magnetic position tracking system at the tested location, and to determine a correction factor to be applied to the position measurements responsively to the assessed distortion. a moveable hand-held probe (56, 73), comprising: a mechanical fixture (70, 75) for placement at a location to be tested; one or more field generators (62A-B, 62C-E), which are attached to the mechanical fixture and are arranged to generate respective magnetic fields; and one or more field sensors (60A-B, 66C-E), which are attached to the mechanical fixture at known positions with respect to the one or more field generators and are arranged to sense the magnetic fields generated by the one or more field generators and to output signals responsively to the sensed magnetic fields; and a mechanical fixture (70, 75) for placement at a location to be tested; one or more field generators (62A-B, 62C-E), which are attached to the mechanical fixture and are arranged to generate respective magnetic fields; and one or more field sensors (60A-B, 66C-E), which are attached to the mechanical fixture at known positions with respect to the one or more field generators and are arranged to sense the magnetic fields generated by the one or more field generators and to output signals responsively to the sensed magnetic fields; and a processor, which is arranged to assess a distortion of the magnetic fields sensed by the field sensors at the tested location by comparing the signals to reference values determined in the absence of the distortion to thereby estimate a level of the field distortion, wherein the processor is arranged to evaluate an effect of the distortion on position measurements made by a magnetic position tracking system at the tested location, and to determine a correction factor to be applied to the position measurements responsively to the assessed distortion.
A water heater (1; 1.1) in particular for vertical installation in the wall of a building or a wall attachment cladding, comprising a housing constituting a closed inner storage space, wherein the inner storage space is formed by at least two pipe sections arranged next to each other and having longitudinal axes which preferably are parallel to each other, the pipe sections being interconnected at their two pipe ends by manifolds (6, 7) the longitudinal axes (9, 10) of which are located at an angle, preferably at right angles, to the pipe sections, wherein the pipe sections as well as the manifolds (6, 7) are designed with the same inner diameter and at least one tempering device for heating and/or cooling the stored water is provided, characterized in that the at least one tempering device comprises a pipe coil through which a tempering medium can flow, wherein, in case of an uneven number of pipe sections, the tempering device is provided in the centrally arranged pipe section and, in case of an even number of pipe sections comprising at least four, the tempering device is provided in one of the pipe middle sections.
A rotor blade having a blade profile, wherein the rotor blade has, in its radially outer region, at least one shroud or at least one shroud section as well as at least one cutting tooth for the at least one-time engagement of at least one inlet coating of a rotor housing using the rotor blade, and wherein the cutting tooth is connected with the shroud or the shroud section, characterized in that the cutting tooth is a section of the blade profile.
A radio frequency channel emulator, comprising: at least one RF multipath subsystem (RFMS) configured to emulate multipath reflections of a transmitted wireless RF signal, such reflections forming a sum of multiple delayed versions of said transmitted signal; each said RF multipath subsystem comprising at least one sub-path (7-50,7-60); characterised in that each said sub-path comprising an impedance discontinuity and an RF cable stub configured to cause an introduced RF signal to bounce back and forth between said impedance discontinuity and an open end of said stub to emulate a multipath cluster. at least one RF multipath subsystem (RFMS) configured to emulate multipath reflections of a transmitted wireless RF signal, such reflections forming a sum of multiple delayed versions of said transmitted signal; each said RF multipath subsystem comprising at least one sub-path (7-50,7-60); characterised in that each said sub-path comprising an impedance discontinuity and an RF cable stub configured to cause an introduced RF signal to bounce back and forth between said impedance discontinuity and an open end of said stub to emulate a multipath cluster.
A therapeutically effective amount of a RIG-I agonist for use in a method of treating or preventing a cancer in a subject, wherein the method comprises administering to the subject a therapeutically effective amount of the RIG-I agonist, and wherein the subject is further administered a therapeutically effective amount of an immune-checkpoint inhibitor, such as PD-1, PD-L1 or CTLA-4 blocking agents or antibodies wherein the RIG-I agonist is a polyribonucleic acid molecule capable of inducing an interferon response in the subject, wherein the RNA molecule is (i) a double stranded duplex or (ii) a single chain molecule comprising a first nucleotide sequence, which 5'-end is conjugated to one end of an element selected from a loop and a linker, wherein the other end of the element is conjugated to the 3'-end of a second nucleotide sequence, wherein the first nucleotide sequence is 100% complementary to the second nucleotide sequence, wherein the first nucleotide sequence and the second nucleotide sequence can hybridize to form a double-stranded section, whereby the RNA molecule forms a hairpin structure, wherein the double-stranded section formed by the first nucleotide sequence and the second nucleotide sequence comprises 18 base pairs, 17 base pairs, 16 base pairs, 15 base pairs, 14 base pairs, 13 base pairs, 12 base pairs, 11 base pairs, 10 base pairs, 9 base pairs, or 8 base pairs. wherein the RIG-I agonist is a polyribonucleic acid molecule capable of inducing an interferon response in the subject, wherein the RNA molecule is (i) a double stranded duplex or (ii) a single chain molecule comprising a first nucleotide sequence, which 5'-end is conjugated to one end of an element selected from a loop and a linker, wherein the other end of the element is conjugated to the 3'-end of a second nucleotide sequence, wherein the first nucleotide sequence is 100% complementary to the second nucleotide sequence, wherein the first nucleotide sequence and the second nucleotide sequence can hybridize to form a double-stranded section, whereby the RNA molecule forms a hairpin structure, (i) a double stranded duplex or (ii) a single chain molecule comprising a first nucleotide sequence, which 5'-end is conjugated to one end of an element selected from a loop and a linker, wherein the other end of the element is conjugated to the 3'-end of a second nucleotide sequence, wherein the first nucleotide sequence is 100% complementary to the second nucleotide sequence, wherein the first nucleotide sequence and the second nucleotide sequence can hybridize to form a double-stranded section, whereby the RNA molecule forms a hairpin structure, wherein the double-stranded section formed by the first nucleotide sequence and the second nucleotide sequence comprises 18 base pairs, 17 base pairs, 16 base pairs, 15 base pairs, 14 base pairs, 13 base pairs, 12 base pairs, 11 base pairs, 10 base pairs, 9 base pairs, or 8 base pairs.
A refrigerator comprising: a cabinet including a storage chamber; a door configured to open and close the storage chamber; a sensor configured to sense whether a user is within or out of a sensing distance to distinguish sensing-on and sensing-off from each other; a door opening device configured to automatically open the door; and a control unit configured to determine a driving condition of the door opening device on a basis of a sensing-on duration time so as to control the driving of the door opening device, characterized in that when the sensing-on duration time is equal to or greater than a preset time t1, the control unit determines whether the sensing-off is performed, when it is determined that the sensing-off is performed, if a time spent for the sensing-off after the sensing-on is less than a preset time t1+t2, the control unit determines that the driving condition is satisfied and thereby the door opening device automatically opens the door, the preset time t1 corresponds to a time for which the user intends to open the door and maintain access to the door, and the preset time t2 is determined corresponding to a time for which the user is out of the door to form an opening space of the door. a cabinet including a storage chamber; a door configured to open and close the storage chamber; a sensor configured to sense whether a user is within or out of a sensing distance to distinguish sensing-on and sensing-off from each other; a door opening device configured to automatically open the door; and a control unit configured to determine a driving condition of the door opening device on a basis of a sensing-on duration time so as to control the driving of the door opening device, characterized in that when the sensing-on duration time is equal to or greater than a preset time t1, the control unit determines whether the sensing-off is performed, when it is determined that the sensing-off is performed, if a time spent for the sensing-off after the sensing-on is less than a preset time t1+t2, the control unit determines that the driving condition is satisfied and thereby the door opening device automatically opens the door, the preset time t1 corresponds to a time for which the user intends to open the door and maintain access to the door, and the preset time t2 is determined corresponding to a time for which the user is out of the door to form an opening space of the door.