mhurhangee/patent-ind-claim-en huggingface dataset:
A residual stress estimation method based on inherent strain, comprising steps of: executing a theoretical analysis process of a structure (S1) by analyzing strain generated in the structure and displaying analysis results (S2), without using a measured value of the structure ; acquiring, based on the analysis results, conditions concerning an analysis range (S3) for estimating residual stress, the acquired conditions concerning the analysis range including a measurement point of a cut piece to be collected from the structure ; cutting the structure , collecting the cut piece from a portion of the structure determined as the measurement point, and acquiring a measured value for the residual stress of the structure by measuring residual stress at the measurement point of the cut piece (S4); estimating distribution of inherent strain (S8) in the analysis range using the measured value, based on the acquired conditions concerning the analysis range, to approximate the inherent strain of the structure in the analysis range; and calculating estimation results of the residual stress based on the estimated distribution of the inherent strain (S10). executing a theoretical analysis process of a structure (S1) by analyzing strain generated in the structure and displaying analysis results (S2), without using a measured value of the structure ; acquiring, based on the analysis results, conditions concerning an analysis range (S3) for estimating residual stress, the acquired conditions concerning the analysis range including a measurement point of a cut piece to be collected from the structure ; cutting the structure , collecting the cut piece from a portion of the structure determined as the measurement point, and acquiring a measured value for the residual stress of the structure by measuring residual stress at the measurement point of the cut piece (S4); estimating distribution of inherent strain (S8) in the analysis range using the measured value, based on the acquired conditions concerning the analysis range, to approximate the inherent strain of the structure in the analysis range; and calculating estimation results of the residual stress based on the estimated distribution of the inherent strain (S10).
An apparatus for forming deformations in a nonwoven web, said apparatus comprising: a first forming member having a surface comprising a plurality of discrete, spaced apart male forming elements , each having: a base that is joined to the surface of said first forming member, a top that is spaced away from said base, and sides that extend between the base and the top of said male forming elements, wherein said male elements have a plan view periphery, and a height (Hi); and a second forming member having a surface comprising a plurality of recesses in said second forming member, wherein said apparatus is characterized in that the surface of said second forming member has a knurled macroscale texture with a plurality of raised texture elements , wherein a top of each texture element has a microscale texture thereon, and wherein said recesses are aligned and configured to receive said male forming elements therein, wherein said recesses have a plan view periphery that is larger than, and completely surrounds, the plan view periphery of said male elements, and said recesses have a depth (Di), and wherein at least some of the microscale texture has a surface roughness parameter Sxp that is greater than 3.0 μm and up to 50 μm, wherein this parameter has the meaning defined in Section V, Test Method C herein. a first forming member having a surface comprising a plurality of discrete, spaced apart male forming elements , each having: a base that is joined to the surface of said first forming member, a top that is spaced away from said base, and sides that extend between the base and the top of said male forming elements, wherein said male elements have a plan view periphery, and a height (Hi); and a second forming member having a surface comprising a plurality of recesses in said second forming member, wherein said apparatus is characterized in that the surface of said second forming member has a knurled macroscale texture with a plurality of raised texture elements , wherein a top of each texture element has a microscale texture thereon, and wherein said recesses are aligned and configured to receive said male forming elements therein, wherein said recesses have a plan view periphery that is larger than, and completely surrounds, the plan view periphery of said male elements, and said recesses have a depth (Di), and wherein at least some of the microscale texture has a surface roughness parameter Sxp that is greater than 3.0 μm and up to 50 μm, wherein this parameter has the meaning defined in Section V, Test Method C herein.
A mounting arrangement for securing a housing to a windshield of a vehicle, the mounting arrangement comprising: a mounting bracket including a plurality of keyhole slots , each having a receiving opening at one end of the keyhole slot , a locking recess at another end of the keyhole slot , and a ramp connecting the receiving opening with the locking recess ; and a plurality of mounting posts , each mounting post having a base portion , a head portion , and a collar portion connecting the head portion to the base portion , each mounting post being mounted to the windshield and positioned to align with associated keyhole slots in the mounting bracket ; each of the keyhole slots and the mounting posts being arranged such that the head portion of the mounting post is received into the receiving opening of its associated keyhole slot , the head portion being slidable up the ramp of its associated keyhole slot , and the head portion being lockable into the locking recess of its associated keyhole slot , each of the ramps tending to tighten the mounting bracket against the windshield during the sliding of the head portions up the ramps ; and the housing being attachable to the mounting bracket . a mounting bracket including a plurality of keyhole slots , each having a receiving opening at one end of the keyhole slot , a locking recess at another end of the keyhole slot , and a ramp connecting the receiving opening with the locking recess ; and a plurality of mounting posts , each mounting post having a base portion , a head portion , and a collar portion connecting the head portion to the base portion , each mounting post being mounted to the windshield and positioned to align with associated keyhole slots in the mounting bracket ; each of the keyhole slots and the mounting posts being arranged such that the head portion of the mounting post is received into the receiving opening of its associated keyhole slot , the head portion being slidable up the ramp of its associated keyhole slot , and the head portion being lockable into the locking recess of its associated keyhole slot , each of the ramps tending to tighten the mounting bracket against the windshield during the sliding of the head portions up the ramps ; and the housing being attachable to the mounting bracket .
A system for constructing buildings comprising: - an apparatus for the 3D printing of buildings , comprising: - an elongate lifting tower extending along a lifting axis (A) oriented in a vertical direction (V); - an operating unit coupled to the lifting tower ; - a boom connected to the operating unit and rotating relative to the lifting tower ; - an extruder mounted on the boom and configured to deliver a fluid construction material, wherein the operating unit is slidable along the lifting tower to lift and lower the boom , characterized in that the system further comprises - a supporting structure; wherein the lifting tower of the apparatus has a summit which is fastened to the supporting structure, wherein the lifting tower comprises a base and the supporting structure includes a respective base and a respective base anchoring system, configured to anchor the base of the supporting structure to the ground, wherein the base of the lifting tower rests on the ground at a first supporting point and the base of the supporting structure rests on a second supporting point, different from the first supporting point. - an apparatus for the 3D printing of buildings , comprising: - an elongate lifting tower extending along a lifting axis (A) oriented in a vertical direction (V); - an operating unit coupled to the lifting tower ; - a boom connected to the operating unit and rotating relative to the lifting tower ; - an extruder mounted on the boom and configured to deliver a fluid construction material, wherein the operating unit is slidable along the lifting tower to lift and lower the boom , characterized in that the system further comprises - an elongate lifting tower extending along a lifting axis (A) oriented in a vertical direction (V); - an operating unit coupled to the lifting tower ; - a boom connected to the operating unit and rotating relative to the lifting tower ; - an extruder mounted on the boom and configured to deliver a fluid construction material, - a supporting structure; wherein the lifting tower of the apparatus has a summit which is fastened to the supporting structure, wherein the lifting tower comprises a base and the supporting structure includes a respective base and a respective base anchoring system, configured to anchor the base of the supporting structure to the ground, wherein the base of the lifting tower rests on the ground at a first supporting point and the base of the supporting structure rests on a second supporting point, different from the first supporting point.
A method carried out by an electronic device which comprises a plurality of cameras , the method comprising: receiving (S210), at the electronic device , a user command to capture an image using a selected one of the plurality of cameras ; in response to receiving said user command, capturing (S221) a first image using the selected camera and capturing (S222) at least one second image using at least one other, non-selected, camera ; storing (S231) the first image to a data storage internal to the electronic device ; sending (S232) the at least one second image to a data storage external of the electronic device for storage at said external storage ; receiving (S310) user input relating to the first image, the user input being selected from: a zoom-in action on the first image; a crop action on the first image; a zoom-out action on the first image; and an instruction to use the first image in an application; in response to receiving said user input relating to the first image, outputting (S340) a notification to the user that the at least one second image is available; obtaining one or more of said second images from the external storage ; receiving user input selecting one of said second images; and storing the selected second image in the internal storage . receiving (S210), at the electronic device , a user command to capture an image using a selected one of the plurality of cameras ; in response to receiving said user command, capturing (S221) a first image using the selected camera and capturing (S222) at least one second image using at least one other, non-selected, camera ; storing (S231) the first image to a data storage internal to the electronic device ; sending (S232) the at least one second image to a data storage external of the electronic device for storage at said external storage ; receiving (S310) user input relating to the first image, the user input being selected from: a zoom-in action on the first image; a crop action on the first image; a zoom-out action on the first image; and an instruction to use the first image in an application; in response to receiving said user input relating to the first image, outputting (S340) a notification to the user that the at least one second image is available; obtaining one or more of said second images from the external storage ; receiving user input selecting one of said second images; and storing the selected second image in the internal storage .
A vacuum pump , in particular a turbomolecular vacuum pump , comprising at least one Holweck pump stage which comprises a Holweck stator and a Holweck rotor; wherein the Holweck stator comprises a stator sleeve which is formed in multiple parts and which has a fixed end attached to a stationary housing section of the vacuum pump and a free end disposed opposite the fixed end in the axial direction; wherein the Holweck rotor comprises a rotor sleeve which surrounds the stator sleeve while forming a Holweck gap , characterized in that the stator sleeve comprises a first sleeve section , which has a first end and a second end disposed opposite the first end , and at least a second sleeve section , which has a first end and a second end disposed opposite the first end , wherein the first end of the first sleeve section is attached to the stationary housing section and the first end of the second sleeve section is attached to the second end of the first sleeve section ; and further characterized in that the first end of the first sleeve section has a first end contour and the first end of the second sleeve section has a first end contour which corresponds to the first end contour of the first sleeve section ; and/or in that the second end of the first sleeve section has a second end contour and the second end of the second sleeve section has a second end contour which corresponds to the second end contour of the first sleeve section . wherein the Holweck stator comprises a stator sleeve which is formed in multiple parts and which has a fixed end attached to a stationary housing section of the vacuum pump and a free end disposed opposite the fixed end in the axial direction; wherein the Holweck rotor comprises a rotor sleeve which surrounds the stator sleeve while forming a Holweck gap , characterized in that the stator sleeve comprises a first sleeve section , which has a first end and a second end disposed opposite the first end , and at least a second sleeve section , which has a first end and a second end disposed opposite the first end , wherein the first end of the first sleeve section is attached to the stationary housing section and the first end of the second sleeve section is attached to the second end of the first sleeve section ; and further characterized in that the first end of the first sleeve section has a first end contour and the first end of the second sleeve section has a first end contour which corresponds to the first end contour of the first sleeve section ; and/or in that the second end of the first sleeve section has a second end contour and the second end of the second sleeve section has a second end contour which corresponds to the second end contour of the first sleeve section .
A method in a device, the method comprising: receiving downlink control information containing physical downlink shared channel resource assignments in one of two types of control channels in a subframe; determining a type of truncation of the subframe and interpreting a subframe truncation field in the received downlink control information based on the type of control channel on which the downlink control information is received; and decoding the physical downlink shared channel based on at least the determined type of truncation of the subframe and the subframe truncation field, wherein determining comprises ascertaining that the truncation is a front truncation in the subframe if downlink control information is received in an enhanced physical downlink control channel. receiving downlink control information containing physical downlink shared channel resource assignments in one of two types of control channels in a subframe; determining a type of truncation of the subframe and interpreting a subframe truncation field in the received downlink control information based on the type of control channel on which the downlink control information is received; and decoding the physical downlink shared channel based on at least the determined type of truncation of the subframe and the subframe truncation field, wherein determining comprises ascertaining that the truncation is a front truncation in the subframe if downlink control information is received in an enhanced physical downlink control channel.
Medical instrument support device comprising a harness with a plate comprising belts for fixation on the chest of an operator, a first fastening element projecting directly from the plate in a direction perpendicular to the chest of said operator and a second complementary fastening element that can be attached to and detached from the first fastening element , an articulation element having a tubular and elongated shape and a first and a second end, in which it is fixed integrally and removably at its first end to the second complementary fastening element and supporting at its second end a housing angularly adjustable in space and which can be fixed in any angular position around an axis A by means of a clamp , the housing being configured to support the medical instrument and the articulation element being flexible so as to allow its deformation to assume a sinuous shape for a positioning of the housing in space, characterised in that said second complementary fastening element is able to rotate about an axis C substantially perpendicular to said plate .
A method of stepwise oil-water separation by oil-gas washing in Fischer-Tropsch process, comprising the steps of: 1) after mixed washing of light oil containing 0.5-6% synthesized water and low gas containing 0.01-2.8% trace hydrocarbon, feeding light oil containing trace hydrocarbon into the left-side end socket of the primary oil-water separator, and sending sewage containing 0.05-0.5% oil to the right-side end socket of the primary oil-water separator, wherein the operating pressure of the primary oil-water separator is 0.3-4.5MPa and the temperature is 20-60°C, 2) after each component in step 1) enters into the primary oil-water separator, realizing fast liquid-gas separation in the T-shaped liquid-gas separator, wherein the low gas separated is discharged from the top of the primary oil-water separator; wherein water containing light oil flows from the right-side end socket of the primary oil-water separator towards right at the velocity of 0.005-0.02 m/s, and undergoes fast dehydration by successively going through the first CPI oil-water fast separation module and hydrophilic droplet agglomeration module to isolate water droplets with particle size larger than 30μm, whereinlight oil after separation only contains 0.05-0.5% water and continues to flow to towards right to be discharged from the left side of a partition plate and enters into an in-depth dehydrator, wherein water droplets with 3-30μm particle sizes are removed in the in-depth dehydrator to get light oil with water content less than 0:02%; and oily sewage flows from the right-side end socket of the primary oil-water separator towards left and passes through the second CPI oil-water fast separation module and oleophilic droplet agglomeration module successively for rapid oil removal,wherein oil droplets with particle size larger than 25μm are separated, and sewage contains 0.03-0.6% of oil after separation and continues to flow towards left to the right side of the partition plate, and the sump oil is discharged from the upper part of the partition plate together with the light oil separated after the left side of the partition plate, and the separated sewage water enters the in-depth oil eliminator, in which oil droplets with 1-25μm particle size is removed, and the oil content of sewage is less than 0.01% at this moment. 1) after mixed washing of light oil containing 0.5-6% synthesized water and low gas containing 0.01-2.8% trace hydrocarbon, feeding light oil containing trace hydrocarbon into the left-side end socket of the primary oil-water separator, and sending sewage containing 0.05-0.5% oil to the right-side end socket of the primary oil-water separator, wherein the operating pressure of the primary oil-water separator is 0.3-4.5MPa and the temperature is 20-60°C, 2) after each component in step 1) enters into the primary oil-water separator, realizing fast liquid-gas separation in the T-shaped liquid-gas separator, wherein the low gas separated is discharged from the top of the primary oil-water separator; wherein
A shovel , comprising: a lower traveling body ; an upper rotating body ; an attachment including a boom and an arm ; a controller ; an engine ; and a hydraulic pump that is driven by the engine and discharges hydraulic oil to drive the attachment, wherein the controller is configured to obtain a hydraulic load applied to the attachment and predict an engine speed that provides engine output torque corresponding to the obtained hydraulic load and output the predicted engine speed as an engine speed command at predetermined time intervals. a lower traveling body ; an upper rotating body ; an attachment including a boom and an arm ; a controller ; an engine ; and a hydraulic pump that is driven by the engine and discharges hydraulic oil to drive the attachment, wherein the controller is configured to obtain a hydraulic load applied to the attachment and predict an engine speed that provides engine output torque corresponding to the obtained hydraulic load and output the predicted engine speed as an engine speed command at predetermined time intervals.
Valve needle for a fuel injector , extending along a longitudinal axis (X) between a needle head and a needle tip , the density of the valve needle being homogeneous from the needle head to the needle tip , and the valve needle comprising an additional part added close to the needle head , the additional part having a mass of at least 1.5 grams and characterized in that the total mass of the valve needle and the additional part is between 4 grams and 5.7 grams.
A sheet processing apparatus, comprising: a plurality of coils (51 to 53) that are provided in a feeding section which is configured to feed a sheet that has been taken in into a transport path and that are configured to generate magnetic fields; a control section that is configured to determine, on a basis of differential values between signals output from the plurality of coils, whether a foreign object has entered the feeding section; and a plurality of kicker rollers that are configured to kick the sheet toward a gate section, wherein the plurality of coils are foreign object detection coils that output different signals depending on whether there is the foreign object nearby, characterised in that the plurality of coils are arranged in correspondence with arrangement of the plurality of kicker rollers, and are arranged to surround the plurality of kicker rollers such that a portion of each of the kicker rollers penetrate an opening formed by the plurality of coils. a plurality of coils (51 to 53) that are provided in a feeding section which is configured to feed a sheet that has been taken in into a transport path and that are configured to generate magnetic fields; a control section that is configured to determine, on a basis of differential values between signals output from the plurality of coils, whether a foreign object has entered the feeding section; and a plurality of kicker rollers that are configured to kick the sheet toward a gate section, wherein the plurality of coils are foreign object detection coils that output different signals depending on whether there is the foreign object nearby, characterised in that the plurality of coils are arranged in correspondence with arrangement of the plurality of kicker rollers, and are arranged to surround the plurality of kicker rollers such that a portion of each of the kicker rollers penetrate an opening formed by the plurality of coils.
A process for making a dried coconut powder comprising the steps of: - enzymatically hydrolyzing grated coconut kernels; - liquefying the coconut kernels; and - spray drying the hydrolyzed and liquefied coconut kernels; wherein the enzymatic hydrolysis is carried out by an enzyme selected from a combination of cellulases, mannanases, beta-glucanases and xylanases. - enzymatically hydrolyzing grated coconut kernels; - liquefying the coconut kernels; and - spray drying the hydrolyzed and liquefied coconut kernels;