mhurhangee/ep-ind-claims huggingface dataset:
Device for circulating a heat transfer fluid around a fluid transport pipe, including an inner tube and an outer tube which are coaxial and of substantially the same length, a first connector having a tubular body arranged to surround a portion of the pipe in a sealed manner and to receive first ends (1.1, 2.1) of the tubes, maintaining an axial offset between the tubes so as to define in a sealed manner a first flow duct between the inner tube and the pipe and a second flow duct between the tubes, and a second connector arranged to surround a portion of the pipe in a sealed manner and cooperating with second ends (1.2, 2.2) of the tubes for the first duct to communicate with the second duct, one of the connectors including means (8, 10) for connecting the first duct and the second duct to a heat transfer fluid circuit.
A method of decoding an encoded audio signal, comprising: receiving, by a decoder, an input bitstream; dividing the input bitstream into a base signal bitstream and transformation parameter data; decoding, by a base signal decoder the base signal bitstream to generate base signals representing a first presentation of the audio signal; wherein said transformation parameter data is for transforming said base signals to output signals representing a second presentation of the audio signal; processing the base signals by an analysis filterbank to generate frequency-domain signals having a plurality of subbands; applying, by a first matrix multiplication unit a complex-valued convolution matrix to a first subband of the frequency-domain signals; applying, by a second matrix multiplication unit complex-valued matrix coefficients to a second subband of the frequency-domain signals; applying, by a third matrix multiplication unit real-valued matrix coefficients to one or more remaining subbands of the frequency-domain signals; and converting, by a synthesis filterbank, output signals from the matrix multiplication units into a time-domain output, wherein said transformation parameter data includes coefficients of said complex-valued convolution matrix, said complex-valued matrix coefficients, and said real-valued matrix coefficients. receiving, by a decoder, an input bitstream; dividing the input bitstream into a base signal bitstream and transformation parameter data; decoding, by a base signal decoder the base signal bitstream to generate base signals representing a first presentation of the audio signal; wherein said transformation parameter data is for transforming said base signals to output signals representing a second presentation of the audio signal; processing the base signals by an analysis filterbank to generate frequency-domain signals having a plurality of subbands; applying, by a first matrix multiplication unit a complex-valued convolution matrix to a first subband of the frequency-domain signals; applying, by a second matrix multiplication unit complex-valued matrix coefficients to a second subband of the frequency-domain signals; applying, by a third matrix multiplication unit real-valued matrix coefficients to one or more remaining subbands of the frequency-domain signals; and converting, by a synthesis filterbank, output signals from the matrix multiplication units into a time-domain output, wherein said transformation parameter data includes coefficients of said complex-valued convolution matrix, said complex-valued matrix coefficients, and said real-valued matrix coefficients.
Mirror replacement system as a camera monitor system of a motor vehicle, in particular a commercial vehicle, having at least one camera which captures and records an environment of the motor vehicle in a camera image in real time, having at least one control device which is supplied with image data from the at least one camera for processing, and having at least one monitor (5, 11) as a screen in the field of view of a driver, which monitor is connected to the at least one control device for the purpose of representing a monitor image of the current camera image captured by the at least one camera, wherein the control device is used to display information representations in the monitor image, which information representations are obtained by evaluating a vehicle sensor system and/or represent virtually generated vehicles, vehicle parts or stationary objects, wherein the displayed information representation is respectively inserted into an image representation in a perspectively correct manner as so-called "augmented reality" in the monitor image, wherein a supporting surface on the ground is shown around the vehicle in the image representation and vehicle parts are projected in a virtual manner onto the ground as displayed information representations, characterized in that two monitors are fitted, a driver-side monitor fitted to a driver-side window column area and a passenger-side monitor fitted to a passenger-side window column area, and are each used to represent, in a plurality of adjacent image fields (II, IV, V) in a monitor image, the camera images from a plurality of cameras assigned to the image fields.
Antenna apparatus comprising: a directional antenna comprising a plurality of antenna array components; a plurality of RF chains (85, 86, 93, 97, 98, 100) connected to the plurality of antenna array components; a transceiver connected to the plurality of RF chains, wherein each RF chain comprises in sequence: a switching stage (87, 88) having switching circuitry selectively to connect an antenna array component; a phase shifting stage (97, 98) having phase shifting circuitry; and a summation stage having summation circuitry, wherein at least two of the RF chains connected to different antenna array components share phase shifting circuitry and at least two of the RF chains connected to different antenna array components share summation circuitry, wherein the plurality of RF chains comprises a further summation stage having further summation circuitry, wherein the further summation stage is between the switching stage and the phase shifting stage, and the further summation stage is configured to combine output from two of the plurality of antenna array components to forward to the shared phase shifting circuitry. a directional antenna comprising a plurality of antenna array components; a plurality of RF chains (85, 86, 93, 97, 98, 100) connected to the plurality of antenna array components; a transceiver connected to the plurality of RF chains, wherein each RF chain comprises in sequence: a switching stage (87, 88) having switching circuitry selectively to connect an antenna array component; a phase shifting stage (97, 98) having phase shifting circuitry; and a summation stage having summation circuitry, a switching stage (87, 88) having switching circuitry selectively to connect an antenna array component; a phase shifting stage (97, 98) having phase shifting circuitry; and a summation stage having summation circuitry, wherein at least two of the RF chains connected to different antenna array components share phase shifting circuitry and at least two of the RF chains connected to different antenna array components share summation circuitry, wherein the plurality of RF chains comprises a further summation stage having further summation circuitry, wherein the further summation stage is between the switching stage and the phase shifting stage, and the further summation stage is configured to combine output from two of the plurality of antenna array components to forward to the shared phase shifting circuitry.
A dental composition for use in the treatment or prevention of caries wherein the composition comprises a rechargeable fluoride delivery system wherein the rechargeable fluoride delivery system comprises a layered double hydroxide with the formula M 1-x M x 2 (A n-) x/n yH 2 0 where, M is a divalent cation M is a trivalent cation A is a chloride anion x is a value between 0.2 and 0.33 y is an integer between 1 and 10 n has a value of 1; wherein the rechargeable fluoride delivery system can be replenished with fluoride. M is a divalent cation M is a trivalent cation A is a chloride anion x is a value between 0.2 and 0.33 y is an integer between 1 and 10 n has a value of 1;
A method of rendering an audio signal, the method comprising the steps of: receiving multi-channel signals including a height input channel signal of a predetermined elevation angle; obtaining an elevation rendering parameter, including an elevation filter coefficient and an elevation panning coefficient based on a layout of a plurality of output channel signals and a height input channel signal of a standard elevation angle; updating the elevation rendering parameter using a difference between the predetermined elevation angle and the standard elevation angle, in case that the predetermined elevation angle is higher than the standard elevation angle; and rendering the multi-channel signals to the plurality of output channel signals, using the updated elevation rendering parameter, to provide an elevated sound image by the plurality of output channel signals, wherein the elevation filter coefficient is calculated based on a head-related transfer function; and wherein the layout of the plurality of output channel signals is a 5.1channel layout. receiving multi-channel signals including a height input channel signal of a predetermined elevation angle; obtaining an elevation rendering parameter, including an elevation filter coefficient and an elevation panning coefficient based on a layout of a plurality of output channel signals and a height input channel signal of a standard elevation angle; updating the elevation rendering parameter using a difference between the predetermined elevation angle and the standard elevation angle, in case that the predetermined elevation angle is higher than the standard elevation angle; and rendering the multi-channel signals to the plurality of output channel signals, using the updated elevation rendering parameter, to provide an elevated sound image by the plurality of output channel signals, wherein the elevation filter coefficient is calculated based on a head-related transfer function; and wherein the layout of the plurality of output channel signals is a 5.1channel layout.
A communication method, comprising: receiving, by a receiving device, a first demodulation reference signal, DMRS, from a first DMRS port by using a first time-frequency resource, and receiving a second DMRS from a second DMRS port by using a second time-frequency resource, wherein the first time-frequency resource is a part of time-frequency resources in the second time-frequency resource, and an orthogonal cover code, OCC, of the first DMRS is orthogonal to an OCC corresponding to the first time-frequency resource in an OCC of the second DMRS; wherein the OCC of the first DMRS is the same as a result obtained after cyclic shift is performed on the OCC corresponding to the first time-frequency resource in the OCC of the second DMRS; and wherein a quantity of subcarriers comprised in the second time-frequency resource is P times a quantity of subcarriers comprised in the first time-frequency resource, and P is an integer greater than 1; and on an orthogonal frequency division multiplexing, OFDM, symbol in time domain, the first time-frequency resource comprises: a subcarrier set in which subcarriers are distributed at equal intervals in the subcarriers comprised in the second time-frequency resource; and two adjacent subcarriers in the subcarrier set are spaced by P-1 subcarriers comprised in the second time-frequency resource. receiving, by a receiving device, a first demodulation reference signal, DMRS, from a first DMRS port by using a first time-frequency resource, and receiving a second DMRS from a second DMRS port by using a second time-frequency resource, wherein the first time-frequency resource is a part of time-frequency resources in the second time-frequency resource, and an orthogonal cover code, OCC, of the first DMRS is orthogonal to an OCC corresponding to the first time-frequency resource in an OCC of the second DMRS; wherein the OCC of the first DMRS is the same as a result obtained after cyclic shift is performed on the OCC corresponding to the first time-frequency resource in the OCC of the second DMRS; and wherein a quantity of subcarriers comprised in the second time-frequency resource is P times a quantity of subcarriers comprised in the first time-frequency resource, and P is an integer greater than 1; and on an orthogonal frequency division multiplexing, OFDM, symbol in time domain, the first time-frequency resource comprises: a subcarrier set in which subcarriers are distributed at equal intervals in the subcarriers comprised in the second time-frequency resource; and two adjacent subcarriers in the subcarrier set are spaced by P-1 subcarriers comprised in the second time-frequency resource.
A system for performing an endoscopic surgical procedure in a surgical cavity, comprising: a) a multi-modal gas delivery device including a primary gas circulation pump, a secondary gas circulation pump and an insufflation subunit; and b) an interface plate adapted and configured to engage with the multi-modal gas delivery device and including a connector and a filter seat (52, 54, 56, 58, 60) corresponding to each of the following five lumens: i) an insufflation and sensing lumen for delivering insufflation gas from the insufflation subunit to the surgical cavity and for facilitating sensing of surgical cavity pressure; ii) a gas delivery lumen for delivering pressurized gas from the primary gas circulation pump to a gas sealed access device; iii) a gas return lumen for returning gas used to generate a gaseous seal within the gas sealed access device back to the primary gas circulation pump; iv) a smoke evacuation lumen for removing smoke filled gas from the surgical cavity by way of the secondary gas circulation pump; and v) a recirculation supply lumen for returning filtered gas back to the surgical cavity from the secondary gas circulation pump. a) a multi-modal gas delivery device including a primary gas circulation pump, a secondary gas circulation pump and an insufflation subunit; and b) an interface plate adapted and configured to engage with the multi-modal gas delivery device and including a connector and a filter seat (52, 54, 56, 58, 60) corresponding to each of the following five lumens: i) an insufflation and sensing lumen for delivering insufflation gas from the insufflation subunit to the surgical cavity and for facilitating sensing of surgical cavity pressure; ii) a gas delivery lumen for delivering pressurized gas from the primary gas circulation pump to a gas sealed access device; iii) a gas return lumen for returning gas used to generate a gaseous seal within the gas sealed access device back to the primary gas circulation pump; iv) a smoke evacuation lumen for removing smoke filled gas from the surgical cavity by way of the secondary gas circulation pump; and v) a recirculation supply lumen for returning filtered gas back to the surgical cavity from the secondary gas circulation pump. i) an insufflation and sensing lumen for delivering insufflation gas from the insufflation subunit to the surgical cavity and for facilitating sensing of surgical cavity pressure; ii) a gas delivery lumen for delivering pressurized gas from the primary gas circulation pump to a gas sealed access device; iii) a gas return lumen for returning gas used to generate a gaseous seal within the gas sealed access device back to the primary gas circulation pump; iv) a smoke evacuation lumen for removing smoke filled gas from the surgical cavity by way of the secondary gas circulation pump; and v) a recirculation supply lumen for returning filtered gas back to the surgical cavity from the secondary gas circulation pump.
A warp feeding method in a loom in which a let-off device and a take-up device have a let-off motor and a take-up motor as driving sources, respectively, the let-off motor and the take-up motor being independent of a main driving motor of the loom, the method comprising the steps of: performing, during a flaw returning operation or looming, a warp feeding operation that continuously feeds a warp by driving the let-off motor and the take-up motor while the main driving motor is stopped; during the warp feeding operation, detecting a tension of a warp; comparing a warp tension value that is based on the detection with a previously set reference value of the tension of the warp; and characeterized in that if the warp tension value is not the reference value, tension control for returning the tension of the warp to the reference value is performed in accordance with a previously set control mode in which the let-off motor and the take-up motor are control objects. performing, during a flaw returning operation or looming, a warp feeding operation that continuously feeds a warp by driving the let-off motor and the take-up motor while the main driving motor is stopped; during the warp feeding operation, detecting a tension of a warp; comparing a warp tension value that is based on the detection with a previously set reference value of the tension of the warp; and characeterized in that if the warp tension value is not the reference value, tension control for returning the tension of the warp to the reference value is performed in accordance with a previously set control mode in which the let-off motor and the take-up motor are control objects.
An isolated polypeptide comprising an oligopeptide sequence that can bind an MHC class II molecule encoded by at least three different HLA-DR alleles with an IC 50 value of less than 100 nM, wherein the oligopeptide sequence comprises AX 1 FVAAX 2 TLX 3 AX 4 A (SEQ ID NO: 1), wherein X 1 is selected from the group consisting of Y, H and I; X 2 is selected from the group consisting of F and N; and X 3 is H; and X 4 is A, wherein said oligopeptide sequence exhibits improved protease resistance and immunogenicity compared to SEQ ID NO: 3.
The compounds of Formula I wherein R1, R2 and R3 are independently selected from C1-C4 alkane, alkene or alkyne, L is a benzene ring with at least one substituent or a benzene with at least one substituent and fused to heterocyclic aromatic or non aromatic ring or a benzene with at least one substituent fused to carbocyclic ring or an aromatic heterocyclic ring with at least one substituent; wherein said ring/benzene substituents are independently selected from a group consisting of C1-C5 alkane, C1-C5 alkene, C1-C5 alkyne, C1-C5 alkane comprising a carbonyl group, a C1 -C5 alkene comprising a carbonyl group, a C1-C5 alkyne containing a carbonyl group, C1-C5 primary amine, C1-C5 secondary amine, C1-C5 tertiary amine, C1-C5 primary amide, C1-C5 secondary amide, C1-C5 tertiary amide, C1-C5 carboxylate, C1-C5 alkoxide, C1-C5 urea, C1-C5 sulphonamide, heterocyclopentadiene groups. R1, R2 and R3 are independently selected from C1-C4 alkane, alkene or alkyne, L is a benzene ring with at least one substituent or a benzene with at least one substituent and fused to heterocyclic aromatic or non aromatic ring or a benzene with at least one substituent fused to carbocyclic ring or an aromatic heterocyclic ring with at least one substituent; wherein said ring/benzene substituents are independently selected from a group consisting of C1-C5 alkane, C1-C5 alkene, C1-C5 alkyne, C1-C5 alkane comprising a carbonyl group, a C1 -C5 alkene comprising a carbonyl group, a C1-C5 alkyne containing a carbonyl group, C1-C5 primary amine, C1-C5 secondary amine, C1-C5 tertiary amine, C1-C5 primary amide, C1-C5 secondary amide, C1-C5 tertiary amide, C1-C5 carboxylate, C1-C5 alkoxide, C1-C5 urea, C1-C5 sulphonamide, heterocyclopentadiene groups.
A water-soluble package comprising a water-soluble substrate and a powder coating on an exterior surface of the water-soluble substrate, wherein the water-soluble substrate encloses a composition and the powder coating includes a powdered bittering agent, wherein the powder coating includes less than 10 wt.% of a powdered lubricating agent based on the total weight of the coating powder and wherein the powdered bittering agent is selected from the group consisting of denatonium benzoate, denatonium saccharide, quinine, or a salt of quinine.
An apparatus, comprising: a camera to record an image; a basic input and output system engine including a first state to enable the camera to record an image and a second state to disable the camera; and an input device both to selectively enable the camera to record an image and disable the camera; characterised in that: the apparatus further comprises a button actuable between on and off conditions; the first state of the basic input and output system engine is arranged to enable the camera regardless of the condition of the button, the second state of the basic input and output system engine is arranged to disable the camera regardless of the condition of the button, and the basic input and output system engine includes a third state that allows the camera to be enabled and disabled by actuating the button; and the input device is effective when the basic input and output system engine is in the third state and when the button is in the on condition. a camera to record an image; a basic input and output system engine including a first state to enable the camera to record an image and a second state to disable the camera; and an input device both to selectively enable the camera to record an image and disable the camera; characterised in that: the apparatus further comprises a button actuable between on and off conditions; the first state of the basic input and output system engine is arranged to enable the camera regardless of the condition of the button, the second state of the basic input and output system engine is arranged to disable the camera regardless of the condition of the button, and the basic input and output system engine includes a third state that allows the camera to be enabled and disabled by actuating the button; and the input device is effective when the basic input and output system engine is in the third state and when the button is in the on condition. the apparatus further comprises a button actuable between on and off conditions; the first state of the basic input and output system engine is arranged to enable the camera regardless of the condition of the button, the second state of the basic input and output system engine is arranged to disable the camera regardless of the condition of the button, and the basic input and output system engine includes a third state that allows the camera to be enabled and disabled by actuating the button; and the input device is effective when the basic input and output system engine is in the third state and when the button is in the on condition.