mhurhangee/patent-ind-claim-en huggingface dataset:
A molecular sieve belonging to the ABC-6 framework family with disorder in the ABC stacking sequence composed of double-six-ring periodic building units and having a mole ratio of silicon oxide to aluminum oxide from 8 to 60 - wherein the molecular sieve belonging to the ABC-6 framework family with disorder in the ABC stacking sequence belongs to the disordered CHA-GME series, and - wherein the calcined form of the molecular sieve has a powder X-ray diffraction pattern collected in Bragg-Brentano geometry with a variable divergence slit using Cu K-alpha radiation as shown in the following Table: 2-Theta (°) d-spacing (Å) Relative peak area Peak character 7.45-7.54 11.85-11.72 W-M Broad to sharp 9.55-9.65 9.24-9.15 VS-W Sharp to broad 11.40-11.66 7.75-7.58 W-M Broad to sharp 12.90-13.04 6.85-6.78 VS-M Sharp 14.07-14.21 6.29-6.23 W Sharp to broad 14.89-15.12 5.94-5.85 W Broad to sharp 16.08-16.27 5.50-5.44 VS-W Sharp to broad 17.17-17.34 5.16-5.11 W-S Broad to sharp 17.71-18.00 5.00-4.92 VS-M Sharp where the relative areas of the observed peaks in the 2-Theta range 7-19 degrees are shown according to: W = weak: 0-20%; M = medium: 20-40%; S = strong: 40-60% and VS = very strong: 60-100%. - wherein the molecular sieve belonging to the ABC-6 framework family with disorder in the ABC stacking sequence belongs to the disordered CHA-GME series, and - wherein the calcined form of the molecular sieve has a powder X-ray diffraction pattern collected in Bragg-Brentano geometry with a variable divergence slit using Cu K-alpha radiation as shown in the following Table: 2-Theta (°) d-spacing (Å) Relative peak area Peak character 7.45-7.54 11.85-11.72 W-M Broad to sharp 9.55-9.65 9.24-9.15 VS-W Sharp to broad 11.40-11.66 7.75-7.58 W-M Broad to sharp 12.90-13.04 6.85-6.78 VS-M Sharp 14.07-14.21 6.29-6.23 W Sharp to broad 14.89-15.12 5.94-5.85 W Broad to sharp 16.08-16.27 5.50-5.44 VS-W Sharp to broad 17.17-17.34 5.16-5.11 W-S Broad to sharp 17.71-18.00 5.00-4.92 VS-M Sharp where the relative areas of the observed peaks in the 2-Theta range 7-19 degrees are shown according to: W = weak: 0-20%; M = medium: 20-40%; S = strong: 40-60% and VS = very strong: 60-100%.
Cover for closing a sealed chamber (2; 22) of a condensing boiler on which at least one exhaust conduit of the combustion fumes produced in said condensing boiler and at least one conduit for the entry of combustion air required for said combustion are intended to fit, said cover - acting as an upper wall of said sealed chamber (2; 22) - comprising setting means (3; 4) for said coupling of: - said at least one exhaust conduit of the combustion fumes, and - said at least one conduit for the entry of combustion air said setting means (3; 4) being integrated and integrally made with said cover characterised in that said setting means (3; 4) comprise: - first setting means for a fume exhaust and combustion air intake conduit of the "coaxial" type, said first setting means comprising, in turn, a coaxial collar integrally made with said cover and comprising a fume exhaust outlet within the annular air intake - second setting means for a combustion fume exhaust and combustion air intake system of a "split system", said second setting means , integrated and integrally made with said cover comprising: - a first coupling for a combustion fume exhaust conduit, said first coupling comprising said fume exhaust outlet of said coaxial collar , - at least a second coupling for a combustion air intake conduit, said second coupling comprising an opening adapted to accommodate the lower end of said combustion air intake conduit, said cover being suitable with both "coaxial system" and "split system" for the discharge of combustion fumes and for the intake of combustion air. - acting as an upper wall of said sealed chamber (2; 22) - comprising setting means (3; 4) for said coupling of: - said at least one exhaust conduit of the combustion fumes, and - said at least one conduit for the entry of combustion air said setting means (3; 4) being integrated and integrally made with said cover - first setting means for a fume exhaust and combustion air intake conduit of the "coaxial" type, said first setting means comprising, in turn, a coaxial collar integrally made with said cover and comprising a fume exhaust outlet within the annular air intake - second setting means for a combustion fume exhaust and combustion air intake system of a "split system", said second setting means , integrated and integrally made with said cover comprising: - a first coupling for a combustion fume exhaust conduit, said first coupling comprising said fume exhaust outlet of said coaxial collar , - at least a second coupling for a combustion air intake conduit, said second coupling comprising an opening adapted to accommodate the lower end of said combustion air intake conduit, - a first coupling for a combustion fume exhaust conduit, said first coupling comprising said fume exhaust outlet of said coaxial collar , - at least a second coupling for a combustion air intake conduit, said second coupling comprising an opening adapted to accommodate the lower end of said combustion air intake conduit,
A femoral implant having an articulating surface and a bone contacting surface , the bone contacting surface comprising: a first curved keel extending proximally from the first condylar surface , the first curved keel having a first curve defining a first radius; a second curved keel extending proximally from the second condylar surface , the second curved keel having a second curve defining a second radius ; a first pivot pad extending anteriorly from a posterior end of one of the first and second condylar surfaces; wherein when the first pivot pad is placed in a corresponding recess in a resected distal bone , the femoral implant can be rotated about the first pivot pad to place the first and second curved keels into corresponding curved recesses in the resected distal bone , characterised in that the bone contacting surface further comprises a second pivot pad extending anteriorly from a posterior end of the other of the first and second condylar surfaces, wherein the second condylar surface is spaced away from the first condylar surface . a first curved keel extending proximally from the first condylar surface , the first curved keel having a first curve defining a first radius; a second curved keel extending proximally from the second condylar surface , the second curved keel having a second curve defining a second radius ; a first pivot pad extending anteriorly from a posterior end of one of the first and second condylar surfaces; wherein when the first pivot pad is placed in a corresponding recess in a resected distal bone , the femoral implant can be rotated about the first pivot pad to place the first and second curved keels into corresponding curved recesses in the resected distal bone , characterised in that the bone contacting surface further comprises a second pivot pad extending anteriorly from a posterior end of the other of the first and second condylar surfaces, wherein the second condylar surface is spaced away from the first condylar surface .
A flexible printed circuit for a concentrated photovoltaic module comprising: a conductive layer to which a power generating element is connected; an insulating layer having an insulating property; an adhesive layer ; and a reinforcing layer for reinforcing the insulating layer ; the conductive layer , the insulating layer , the adhesive layer and the reinforcing layer being joined and stacked together in this order, wherein the reinforcing layer is formed of a material identical to that of the conductive layer , one surface of the reinforcing layer to be joined to the insulating layer has been subjected to blackening treatment, whereby fine bumps are formed on the surface. a conductive layer to which a power generating element is connected; an insulating layer having an insulating property; an adhesive layer ; and a reinforcing layer for reinforcing the insulating layer ; the conductive layer , the insulating layer , the adhesive layer and the reinforcing layer being joined and stacked together in this order, wherein the reinforcing layer is formed of a material identical to that of the conductive layer , one surface of the reinforcing layer to be joined to the insulating layer has been subjected to blackening treatment, whereby fine bumps are formed on the surface.
A binding reagent capable of specifically binding to the chemokine receptor CCR2 for use in the treatment of a diabetes condition, wherein the binding reagent is immobilized on a solid support contained within an apheresis column, to which is applied peripheral blood from a patient thus removing CCR2 expressing cells from the peripheral blood of the patient, and wherein the binding reagent is MCP-1.
Device for measuring radiation backscattered by a sample including: - at least one light source that is configured to emit a light beam , along an axis of incidence (Δ), towards a surface of the sample (S) so as to form, on said surface, an elementary illumination zone ; - an image sensor for forming an image of the radiation backscattered by the sample when the latter is illuminated by the light source, the image sensor lying in a detection plane (P); and - a bundle of optical fibres form a plate extending, along an axis of extension (Z), between a proximal surface (25 p ) and a distal surface (25 d ), the proximal surface being applied against the image sensor, the distal surface of the bundle of fibres being configured to be applied in contact with the surface of the sample, the distal surface being configured to extend parallel to the surface of the sample; the device being such that the light source is arranged around the bundle of optical fibres at a distance of less than 1 mm away from the bundle of optical fibres, the distance being determined parallel to the distal surface. - at least one light source that is configured to emit a light beam , along an axis of incidence (Δ), towards a surface of the sample (S) so as to form, on said surface, an elementary illumination zone ; - an image sensor for forming an image of the radiation backscattered by the sample when the latter is illuminated by the light source, the image sensor lying in a detection plane (P); and - a bundle of optical fibres form a plate extending, along an axis of extension (Z), between a proximal surface (25 p ) and a distal surface (25 d ), the proximal surface being applied against the image sensor, the distal surface of the bundle of fibres being configured to be applied in contact with the surface of the sample, the distal surface being configured to extend parallel to the surface of the sample;
A computer implemented method for 3D measuring distances (d 1; d 2 ), comprising: obtaining a stack of tomosynthesis images which are series of 2D images which are parallel to an x-y plane of an x-ray detector , wherein each 2D image is stacked on top of or below another one in the z-direction orthogonal to the x-y plane of the x-ray detector ; generating a volumetric image (3906; 4006) of an image volume from the tomosynthesis stack; a user selecting (3201; 3204) a first tomosynthesis slice from the tomosynthesis stack; a user using an input unit to select (3201;3204) first point (A) on said first tomosynthesis slice and a second point on a second tomosynthesis slice; wherein the z coordinate of the points corresponds to a distance (d 1; d 2 ) of corresponding 2D image to the surface of the x-ray detector , and wherein the x-y coordinates of the points (A;B) are determined from the pixel arrays corresponding to the respective tomosynthesis slices ; placing a point corresponding to the said first point (A) and placing a point corresponding to the said second point (B) on the volumetric image; calculating the vector and magnitude between the two points (A;B) selected using the x, y and z coordinates. dynamically calculating and updating the magnitude of the vector from the first measurement point to the second measurement point when a first or second point is moved or changed; displaying the volumetric image and the vector contained therein. obtaining a stack of tomosynthesis images which are series of 2D images which are parallel to an x-y plane of an x-ray detector , wherein each 2D image is stacked on top of or below another one in the z-direction orthogonal to the x-y plane of the x-ray detector ; generating a volumetric image (3906; 4006) of an image volume from the tomosynthesis stack; a user selecting (3201; 3204) a first tomosynthesis slice from the tomosynthesis stack; a user using an input unit to select (3201;3204) first point (A) on said first tomosynthesis slice and a second point on a second tomosynthesis slice; wherein the z coordinate of the points corresponds to a distance (d 1; d 2 ) of corresponding 2D image to the surface of the x-ray detector , and wherein the x-y coordinates of the points (A;B) are determined from the pixel arrays corresponding to the respective tomosynthesis slices ; placing a point corresponding to the said first point (A) and placing a point corresponding to the said second point (B) on the volumetric image; calculating the vector and magnitude between the two points (A;B) selected using the x, y and z coordinates. dynamically calculating and updating the magnitude of the vector from the first measurement point to the second measurement point when a first or second point is moved or changed; displaying the volumetric image and the vector contained therein.
A combine comprising: a feeder housing for receiving harvested crop; a separating system for threshing the harvested crop to separate grain from residue; a crop cleaning system including a cleaning fan powered by a fan drive to propel the residue into a residue system of the combine; at least one sensor for detecting an operational parameter of the fan drive ; and a controller coupled to the at least one sensor , the controller configured to: - determine a load on the fan drive from the detected operational parameter, - compare the determined load to a load threshold, - control a speed of the cleaning fan based on the comparison; characterised in that , the controller is further configured to - compare the load to a second load threshold, and - control the speed of the cleaning fan based on the comparison between the load and the second load threshold. a feeder housing for receiving harvested crop; a separating system for threshing the harvested crop to separate grain from residue; a crop cleaning system including a cleaning fan powered by a fan drive to propel the residue into a residue system of the combine; at least one sensor for detecting an operational parameter of the fan drive ; and a controller coupled to the at least one sensor , the controller configured to: - determine a load on the fan drive from the detected operational parameter, - compare the determined load to a load threshold, - control a speed of the cleaning fan based on the comparison; - determine a load on the fan drive from the detected operational parameter, - compare the determined load to a load threshold, - control a speed of the cleaning fan based on the comparison; characterised in that , the controller is further configured to - compare the load to a second load threshold, and - control the speed of the cleaning fan based on the comparison between the load and the second load threshold. - compare the load to a second load threshold, and - control the speed of the cleaning fan based on the comparison between the load and the second load threshold.
An engine comprising: a compression chamber (A) that intakes and compresses working fluid; an expansion chamber (C) that expands and exhausts working fluid; and a transfer chamber (D) placed on top of the compression chamber and the expansion chamber, said transfer chamber receives working fluid from the compression chamber, moves reciprocally between and perpendicular to the compression and expansion chambers, and transfers working fluid to the expansion chamber; and a compression piston that compresses working fluid in the compression chamber and into the transfer chamber, wherein an internal volume of the transfer chamber decreases during the transfer of working fluid to further compress working fluid in the transfer chamber. a compression chamber (A) that intakes and compresses working fluid; an expansion chamber (C) that expands and exhausts working fluid; and a transfer chamber (D) placed on top of the compression chamber and the expansion chamber, said transfer chamber receives working fluid from the compression chamber, moves reciprocally between and perpendicular to the compression and expansion chambers, and transfers working fluid to the expansion chamber; and a compression piston that compresses working fluid in the compression chamber and into the transfer chamber, wherein an internal volume of the transfer chamber decreases during the transfer of working fluid to further compress working fluid in the transfer chamber.
A local device to detect anomalies configured to perform a method, the method comprising: receiving , by the local device, a first advertisement corresponding to a remote manifest of a remote device, wherein the first advertisement includes a root hash value of the manifest and a service record corresponding to the remote device; and updating a local manifest of the local device, in response to determining that the local manifest and the remote manifest correspond to a same namespace, by inserting the service record of the first advertisement into the local manifest. receiving , by the local device, a first advertisement corresponding to a remote manifest of a remote device, wherein the first advertisement includes a root hash value of the manifest and a service record corresponding to the remote device; and updating a local manifest of the local device, in response to determining that the local manifest and the remote manifest correspond to a same namespace, by inserting the service record of the first advertisement into the local manifest.
A method of processing a multi-channel audio signal, the method comprising the steps of: determining a location of sound sources within the audio signal; applying a rotation operation to the audio signal, a direction of the rotation operation dependent on the location of the sound sources in the signal; and generating a rotated audio signal, characterised in that the step of determining the location of sound sources comprises classifying sound sources as located in a first region or a second region relative to a recording device , wherein the step of applying a rotation operation to the signal comprises: separating the signal into a first signal and a second signal, the first signal comprising the sound sources classified as located in the first region, and the second signal comprising sound sources classified as located in the second region; applying a first rotation operation to the first signal to generate a rotated first signal; and applying a second rotation operation to the second signal to generate a rotated second signal. determining a location of sound sources within the audio signal; applying a rotation operation to the audio signal, a direction of the rotation operation dependent on the location of the sound sources in the signal; and generating a rotated audio signal, characterised in that the step of determining the location of sound sources comprises classifying sound sources as located in a first region or a second region relative to a recording device , wherein the step of applying a rotation operation to the signal comprises: separating the signal into a first signal and a second signal, the first signal comprising the sound sources classified as located in the first region, and the second signal comprising sound sources classified as located in the second region; applying a first rotation operation to the first signal to generate a rotated first signal; and applying a second rotation operation to the second signal to generate a rotated second signal. separating the signal into a first signal and a second signal, the first signal comprising the sound sources classified as located in the first region, and the second signal comprising sound sources classified as located in the second region; applying a first rotation operation to the first signal to generate a rotated first signal; and applying a second rotation operation to the second signal to generate a rotated second signal.
An ultrasonic atomization apparatus comprising: a container including a separator cup configured to accommodate a source solution at a lower part; an internal hollow structure body including a hollow inside being provided above said separator cup in said container ; and a water tank configured to accommodate an ultrasonic wave conveyance medium inside, said water tank and said separator cup being positioned so that a bottom surface of said separator cup is immersed in said ultrasonic wave conveyance medium , a plurality of ultrasonic vibrators provided in a bottom surface of said water tank , characterized in that said separator cup uses fluorocarbon resin as a constituent material, and includes a bottom surface having a thickness satisfying a thin film condition, said thin film condition being that "said thickness of said bottom surface is 0.5 mm or less", said bottom surface of said separator cup includes a plurality of thin film regions corresponding to said plurality of ultrasonic vibrators , and each of said plurality of thin film regions includes an ultrasonic wave transmission region allowing transmission of ultrasonic waves applied from a corresponding ultrasonic vibrator out of said plurality of ultrasonic vibrators , and in said bottom surface of said separator cup , said plurality of thin film regions each satisfies said thin film condition, and the other region except for said plurality of thin film regions does not satisfy said thin film condition. a container including a separator cup configured to accommodate a source solution at a lower part; an internal hollow structure body including a hollow inside being provided above said separator cup in said container ; and a water tank configured to accommodate an ultrasonic wave conveyance medium inside, said water tank and said separator cup being positioned so that a bottom surface of said separator cup is immersed in said ultrasonic wave conveyance medium , a plurality of ultrasonic vibrators provided in a bottom surface of said water tank , characterized in that said separator cup uses fluorocarbon resin as a constituent material, and includes a bottom surface having a thickness satisfying a thin film condition, said thin film condition being that "said thickness of said bottom surface is 0.5 mm or less", said bottom surface of said separator cup includes a plurality of thin film regions corresponding to said plurality of ultrasonic vibrators , and each of said plurality of thin film regions includes an ultrasonic wave transmission region allowing transmission of ultrasonic waves applied from a corresponding ultrasonic vibrator out of said plurality of ultrasonic vibrators , and in said bottom surface of said separator cup , said plurality of thin film regions each satisfies said thin film condition, and the other region except for said plurality of thin film regions does not satisfy said thin film condition.