mhurhangee/patent-ind-claim-en huggingface dataset:
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 method of performing geometrical measurements of remote objects, the method comprising: performing a laser sweep of a measurement object with a handheld sensor device, the handheld sensor device including a distance measurement unit and an inertial measurement unit, the distance measurement unit being configured to measure a distance to a point on the object in a measurement direction, the measurement direction being defined by an orientation of the handheld sensor device; activating the distance measurement unit to perform a plurality of distance measurements during the laser sweep; activating the inertial measurement unit to perform an inertial measurement in association with each of the distance measurements, wherein the inertial measurements include position and orientation data pertaining to the handheld measuring device; using a processor to process the distance measurements, wherein the inertial measurements include position and orientation data pertaining to the handheld measuring device, with reference to the associated inertial measurements to determine a geometric characteristic of the measurement object; using the processor to generate a 3D point collection for the measurement object from the distance measurements and the associated inertial measurements; characterized by using the processor to reduce the 3D point collection to a collection of 2D points; using the processor for the detection and segmentation of lines in the 2D point collection; using the processor to compute intersection points between 2D lines; and using the processor to estimate based on the Euclidian distance between the intersection points the dimension of a wall or based on the angle between two intersecting 2D lines to estimate an angle between two walls. performing a laser sweep of a measurement object with a handheld sensor device, the handheld sensor device including a distance measurement unit and an inertial measurement unit, the distance measurement unit being configured to measure a distance to a point on the object in a measurement direction, the measurement direction being defined by an orientation of the handheld sensor device; activating the distance measurement unit to perform a plurality of distance measurements during the laser sweep; activating the inertial measurement unit to perform an inertial measurement in association with each of the distance measurements, wherein the inertial measurements include position and orientation data pertaining to the handheld measuring device; using a processor to process the distance measurements, wherein the inertial measurements include position and orientation data pertaining to the handheld measuring device, with reference to the associated inertial measurements to determine a geometric characteristic of the measurement object;
Handheld implement having a shaft that has at least two shaft parts that are connectable releasably together via a plug-in coupling that has a coupling unit at each end of the shaft parts , wherein the handheld implement is in the form of a writing- or painting-implement unit, and the shaft parts that are connectable releasably together each bear a nib or painting tip at their ends remote from the coupling unit , characterized in that each coupling unit of the shaft parts has a slide that is held immovably in an open-ended guide hole in the associated shaft part and protrudes beyond the guide hole with a slide portion , in that the free end of the slide portion is in the form of a latching fork that has a latching opening between two fork arms , in that the slide portion bears a latching protrusion on its inner side behind the latching fork in the sliding direction, in that the coupling unit has a guide sleeve that encloses the slide and is guided movably in the guide hole counter to the restoring force of a spring- or rubber-elastic restoring element , and in that when the ends, having the coupling units , of two shaft parts are pressed together, the latching fork of one coupling unit is latchable on the latching protrusion of the other coupling unit with at least one of the guide sleeves being pushed back.
Apparatus for load detection of preferably compressive, tensile and/or torsional loads on a utility vehicle chassis part, with two carrier feet which are arranged at a spacing from one another and on which in each case a lower side and an upper side are configured, it being possible for each carrier foot to be welded along the lower side to the chassis part, and each carrier foot being provided on the upper side with a fastening face for the support of a sensor carrier which forms a bridge between the carrier feet , the carrier feet being of rotationally symmetrical design with an axis of symmetry which runs transversely with respect to their lower side and upper side, the sensor carrier consisting of a single piece of material, carries a load sensor in a central section which is arranged between the carrier feet, and forms a fastening region on each of its two end sections , in which fastening region the sensor carrier is supported against the fastening face of the respective carrier foot under the tightening force of a screw connection , the fastening region being supported in direct contact against the fastening face , and the fastening region or the fastening face being provided with a tooth-like surface structure for the material-displacing penetration into the opposite fastening face or into the opposite fastening region , - only the fastening region being provided with the tooth-like surface structure , and the sensor carrier having a material hardness in the fastening region , which material hardness is greater than the material hardness of the carrier foot ; or - only the fastening face being provided with the tooth-like surface structure , and the carrier foot having a material hardness on the fastening face , which material hardness is greater than the material hardness of the sensor carrier . - only the fastening region being provided with the tooth-like surface structure , and the sensor carrier having a material hardness in the fastening region , which material hardness is greater than the material hardness of the carrier foot ; or - only the fastening face being provided with the tooth-like surface structure , and the carrier foot having a material hardness on the fastening face , which material hardness is greater than the material hardness of the sensor carrier .
A method for steering of roaming by a user equipment, UE, in a wireless communication system, the method comprising: sending a registration request message to an access and mobility management function, AMF, in a visited public land mobile network, VPLMN; receiving a registration accept message including preferred PLMN list from the AMF in the VPLMN; performing security check of the preferred PLMN list; and sending a registration complete message to the AMF in the VPLMN based on a result of the security check. sending a registration request message to an access and mobility management function, AMF, in a visited public land mobile network, VPLMN; receiving a registration accept message including preferred PLMN list from the AMF in the VPLMN; performing security check of the preferred PLMN list; and sending a registration complete message to the AMF in the VPLMN based on a result of the security check.
A balloon catheter , comprising: a catheter shaft extending in an extension direction from a proximal end toward a distal end; a balloon provided on the catheter shaft and inflatable in a radially outward direction centered on the catheter shaft ; a linear member disposed on at least an inflation region of an outer circumferential surface of the balloon and extending in the extension direction, the inflation region extending in the extension direction over a portion of the balloon , with a substantially constant diameter throughout the extension direction; and a pressing member pressing the linear member against the balloon , the pressing member including a membrane portion covering at least a portion of the inflation region of the outer circumferential surface of the balloon , the membrane portion including a first membrane portion and a second membrane portion , the first membrane portion being in contact with the linear member and directly covering the linear member , the second membrane portion being in contact with the outer circumferential surface of the balloon , wherein at least a portion of the linear member is disposed between the first membrane portion and the balloon and located outside the second membrane portion in a radial direction with respect to the cross-sectional center of the catheter shaft . a catheter shaft extending in an extension direction from a proximal end toward a distal end; a balloon provided on the catheter shaft and inflatable in a radially outward direction centered on the catheter shaft ; a linear member disposed on at least an inflation region of an outer circumferential surface of the balloon and extending in the extension direction, the inflation region extending in the extension direction over a portion of the balloon , with a substantially constant diameter throughout the extension direction; and a pressing member pressing the linear member against the balloon , the pressing member including a membrane portion covering at least a portion of the inflation region of the outer circumferential surface of the balloon , the membrane portion including a first membrane portion and a second membrane portion , the first membrane portion being in contact with the linear member and directly covering the linear member , the second membrane portion being in contact with the outer circumferential surface of the balloon , wherein at least a portion of the linear member is disposed between the first membrane portion and the balloon and located outside the second membrane portion in a radial direction with respect to the cross-sectional center of the catheter shaft .
A crystalline form of Compound 1 : wherein the compound is in the (R) configuration with respect to the nitrogen, and wherein the crystalline form has an x-ray powder diffraction (XRPD) pattern comprising x-ray powder diffraction peaks at 11.56, 13.44, 13.98, 15.52, 16.4, 17.3, 19.42, 20.06, 20.82, 21.9, 22.3, 23.34, 24.42, 24.84, 26.38, 27, 27.64, 28.62, 29.16, and 29.7 ± 0.2 degrees 2-theta.
An injection device for delivering a therapeutic agent to a patient, the injection device comprising: a body having a patient face and a port face opposite the patient face , the port face having an introducer port including an introducer channel and an injection port including an injection channel , the injection channel defining an injection axis ; a delivery tube for subcutaneous delivery of the therapeutic agent to the patient, the delivery tube projecting from and being generally perpendicular to the patient face , the delivery tube defining an introducer axis and being in fluid communication with the injection port ; a patch attached to the patient face and operable to adhesively attach to the patient; wherein the injection axis is parallel to and does not intersect with the introducer axis ; and further comprising an injection adapter assembly connectable to the injection port , the injection adapter assembly being operable to receive a needleless pen injector ; wherein the injection device further includes an injection septum disposed over the injection channel and the injection adapter assembly includes an adaptor septum . a body having a patient face and a port face opposite the patient face , the port face having an introducer port including an introducer channel and an injection port including an injection channel , the injection channel defining an injection axis ; a delivery tube for subcutaneous delivery of the therapeutic agent to the patient, the delivery tube projecting from and being generally perpendicular to the patient face , the delivery tube defining an introducer axis and being in fluid communication with the injection port ; a patch attached to the patient face and operable to adhesively attach to the patient; wherein the injection axis is parallel to and does not intersect with the introducer axis ; and further comprising an injection adapter assembly connectable to the injection port , the injection adapter assembly being operable to receive a needleless pen injector ; wherein the injection device further includes an injection septum disposed over the injection channel and the injection adapter assembly includes an adaptor septum .
Instrumentation system comprising at least one set of sensors , at least one gateway , at least one central application server , and an Internet communication network, said at least one gateway being connected to said Internet communication network, each sensor of a set being interfaced to said Internet communication network via a gateway , said at least one central application server being connected to said Internet communication network, the system also includes a plurality of intermediate exchange servers , for which a central application server comprises a client capable of allowing said central application server to connect and initiate a communication session with at least one of the intermediate exchange servers ; for which said at least one gateway includes a client capable of allowing said at least one gateway to connect and initiate at least one communication session with at least one of said intermediate exchange servers ; the system being configured so that all exchanges between the central application server and the at least one gateway take place via the intermediate exchange server ; and wherein said at least one gateway is configured to: receive measurement data from at least one sensor , connect to the Internet communication network and initiate at least one communication session with at least one intermediate exchange server , transmit to the intermediate exchange server a message comprising a gateway identifier, at least one sensor identifier and at least some of said measurement data, characterized in that in the system, the intermediate exchange server is configured to transmit said message to the central application server , the system is also configured to perform the following steps: - request , by a central application server or by a gateway , to assign an additional intermediate data exchange server (9D2) to said gateway , - assignment , by a central application server , of an intermediate additional data exchange server (9D2), to said gateway - transmission , by said central application server , connection parameters to said additional intermediate data exchange server (9D2), to said gateway . - request , by a central application server or by a gateway , to assign an additional intermediate data exchange server (9D2) to said gateway , - assignment , by a central application server , of an intermediate additional data exchange server (9D2), to said gateway - transmission , by said central application server , connection parameters to said additional intermediate data exchange server (9D2), to said gateway .
A method for localizing a pallet , the method comprising: acquiring, by a 3D camera , a first image of point cloud data , wherein the first image is representative of the pallet ; generating a second image by: truncating the point cloud data of the first image , and after the truncating, orthogonally projecting remaining point cloud data of the first image onto the plane of the 3D camera; generating a third image by creating a binary image from the second image; generating a cross-correlation image by cross-correlating the third image with a template of a pallet pocket ; and determining a rotation angle (R) of the pallet by analyzing the cross-correlation image . acquiring, by a 3D camera , a first image of point cloud data , wherein the first image is representative of the pallet ; generating a second image by: truncating the point cloud data of the first image , and after the truncating, orthogonally projecting remaining point cloud data of the first image onto the plane of the 3D camera; generating a third image by creating a binary image from the second image; generating a cross-correlation image by cross-correlating the third image with a template of a pallet pocket ; and determining a rotation angle (R) of the pallet by analyzing the cross-correlation image . truncating the point cloud data of the first image , and after the truncating, orthogonally projecting remaining point cloud data of the first image onto the plane of the 3D camera; generating a third image by creating a binary image from the second image; generating a cross-correlation image by cross-correlating the third image with a template of a pallet pocket ; and determining a rotation angle (R) of the pallet by analyzing the cross-correlation image .
An apparatus comprising: an insulation blanket including: an outer layer ; an insulation layer disposed in the outer layer ; and a first fastener disposed in the insulation layer , the outer layer and the insulation layer forming a first channel , the first fastener being adapted to receive, via the first channel , a first portion of a vehicle compartment frame to sealingly couple the insulation layer and the outer layer of the insulation blanket to the vehicle compartment frame ; wherein the insulation layer and the first fastener disposed in the insulation layer are enclosed in the outer layer ; wherein the first fastener comprises a unitary structure comprising a first leg , a second leg opposite the first leg , and a middle portion extending between the first leg and the second leg ; and wherein the first leg and the second leg are configured to clamp a portion of the insulation blanket to the vehicle compartment frame . an outer layer ; an insulation layer disposed in the outer layer ; and a first fastener disposed in the insulation layer , the outer layer and the insulation layer forming a first channel , the first fastener being adapted to receive, via the first channel , a first portion of a vehicle compartment frame to sealingly couple the insulation layer and the outer layer of the insulation blanket to the vehicle compartment frame ; wherein the insulation layer and the first fastener disposed in the insulation layer are enclosed in the outer layer ; wherein the first fastener comprises a unitary structure comprising a first leg , a second leg opposite the first leg , and a middle portion extending between the first leg and the second leg ; and wherein the first leg and the second leg are configured to clamp a portion of the insulation blanket to the vehicle compartment frame .
A method of manufacturing a plastic end cap for use in a rotary pump, wherein the plastic end cap comprises a central axis and an annular wall defining a first end, a second end opposite the first end, and a critical radially facing surface extending at least part way between the first and second ends, characterized in that the end cap is formed in a mould defining a cavity and comprises at least three substantially equally circumferentially spaced gates each for injecting plastic in the cavity, wherein the method comprises the step of: simultaneously injecting plastic at the gates to fill the cavity such that the critical surface is formed with high points and low points at predetermined locations around the circumference of the finished critical surface.
Built-in household appliance, in particular dishwasher, having at least one length-adjustable spacing sleeve for fixing the built-in household appliance to at least one wall, in particular a furniture wall , by means of a fixing bolt , wherein the spacing sleeve has a first sleeve part mounted on the built-in household appliance and a telescopically adjustable second sleeve part that is length-adjustable in relation to the first sleeve part until it comes into contact with the wall, in particular the furniture wall , along an axis (I), characterised in that an anti-twist element is provided that restricts a rotational movement (II) of the second sleeve part around the axis (I), and in that on the first sleeve part and on the second sleeve part the anti-twist element has end faces that correspond to one another, which face one another in the axial direction.