mhurhangee/patent-ind-claim-en huggingface dataset:
A computer program product for facilitating processing within a computing environment, the computer program product comprising: one or more computer readable storage media and program instructions collectively stored on the one or more computer readable storage media to perform a method comprising: executing a convert instruction to perform converting and scaling operations, the convert instruction being part of an instruction set architecture, the executing the convert instruction comprising: scaling a value to provide a scaled result, wherein the scaling includes, as part of executing the convert instruction : obtaining , using a field of the convert instruction , a scale value; determining whether the scale value is valid , wherein the determining is based on a preselected value; using the scale value to determine a scale factor different from the scale value, based on determining that the scale value is valid; and using the scale factor in scaling the value to provide the scaled result , wherein the value is an input value of the convert instruction or a converted result obtained from converting, as part of executing the convert instruction , the input value from one format to another format; converting the scaled result to provide a converted scaled result, based on the value being the input value; and placing a result obtained from the executing the convert instruction in a selected location. obtaining , using a field of the convert instruction , a scale value; determining whether the scale value is valid , wherein the determining is based on a preselected value; using the scale value to determine a scale factor different from the scale value, based on determining that the scale value is valid; and using the scale factor in scaling the value to provide the scaled result , wherein the value is an input value of the convert instruction or a converted result obtained from converting, as part of executing the convert instruction , the input value from one format to another format; converting the scaled result to provide a converted scaled result, based on the value being the input value; and placing a result obtained from the executing the convert instruction in a selected location.
A radiographic imaging apparatus comprising: a sensor substrate in which a plurality of pixels for accumulating electric charges generated in response to light converted from radiation is formed in a pixel region of a flexible base material ; a conversion layer that is provided on a surface of the base material provided with the pixel region and converts the radiation into light; and an absorption layer provided on the side of the conversion layer opposite to the sensor substrate , the absorption layer being provided on a side opposite to a side to which the radiation is radiated in a laminate in which the sensor substrate and the conversion layer are laminated and absorbs influence of irregularities generated on the conversion layer on the sensor substrate ; a rigid plate that is provided on a side of the absorption layer opposite to a side facing the laminate and has a higher stiffness than the sensor substrate ; and characterized by : a housing in which the radiographic imaging apparatus is housed in order of the laminate , the absorption layer , and the rigid plate from the side to which the radiation is radiated; and a reinforcing substrate that is provided between the absorption layer and the laminate and that disperses a compressive force applied to the absorption layer in an in-plane direction of the absorption layer a sensor substrate in which a plurality of pixels for accumulating electric charges generated in response to light converted from radiation is formed in a pixel region of a flexible base material ; a conversion layer that is provided on a surface of the base material provided with the pixel region and converts the radiation into light; and an absorption layer provided on the side of the conversion layer opposite to the sensor substrate , the absorption layer being provided on a side opposite to a side to which the radiation is radiated in a laminate in which the sensor substrate and the conversion layer are laminated and absorbs influence of irregularities generated on the conversion layer on the sensor substrate ; a rigid plate that is provided on a side of the absorption layer opposite to a side facing the laminate and has a higher stiffness than the sensor substrate ; and characterized by : a housing in which the radiographic imaging apparatus is housed in order of the laminate , the absorption layer , and the rigid plate from the side to which the radiation is radiated; and a reinforcing substrate that is provided between the absorption layer and the laminate and that disperses a compressive force applied to the absorption layer in an in-plane direction of the absorption layer a housing in which the radiographic imaging apparatus is housed in order of the laminate , the absorption layer , and the rigid plate from the side to which the radiation is radiated; and a reinforcing substrate that is provided between the absorption layer and the laminate and that disperses a compressive force applied to the absorption layer in an in-plane direction of the absorption layer
A sludge dehydrating agent with a polymer which has a constituent unit derived from a cationic monomer, wherein the polymer is a crosslinking polymer of a cationic monomer represented by formula or a crosslinking copolymer of the cationic monomer represented by formula and a non-ionic monomer manufactured using a crosslinking agent, and a proportion of the cationic monomer is 30 mol% or more in a total of 100 mol% of monomers that serve as constituent units of the polymer, wherein, in formula , R 1 is a hydrogen atom or a methyl group, R 2 and R 3 are each independently a hydrogen atom or an alkyl group having 1 to 3 carbon atoms, R 4 is a hydrogen atom, an alkyl group having 1 to 3 carbon atoms, or a benzyl group, A is an oxygen atom or an imino group, B is an alkylene group having 2 to 4 carbon atoms, and X - is a negative ion, wherein the amount of the crosslinking agent added is 10 to 400 mass ppm with respect to the total mass of the monomers, wherein a value k determined from an intrinsic viscosity [η] 1 [dL/g] of a 1-mol/L aqueous sodium nitrate solution of the polymer at 30°C and an intrinsic viscosity [η] 0.01 [dL/g] of a 0.01-mol/L aqueous sodium nitrate solution of the polymer at 30°C in accordance with formula (I) is 0.8 to 2.2 exclusive, k = η 0.01 − η 1 / 9 wherein the intrinsic viscosity is measured according to the method detailed at of the description. wherein the polymer is a crosslinking polymer of a cationic monomer represented by formula or a crosslinking copolymer of the cationic monomer represented by formula and a non-ionic monomer manufactured using a crosslinking agent, and a proportion of the cationic monomer is 30 mol% or more in a total of 100 mol% of monomers that serve as constituent units of the polymer, wherein, in formula , R 1 is a hydrogen atom or a methyl group, R 2 and R 3 are each independently a hydrogen atom or an alkyl group having 1 to 3 carbon atoms, R 4 is a hydrogen atom, an alkyl group having 1 to 3 carbon atoms, or a benzyl group, A is an oxygen atom or an imino group, B is an alkylene group having 2 to 4 carbon atoms, and X - is a negative ion, wherein the amount of the crosslinking agent added is 10 to 400 mass ppm with respect to the total mass of the monomers, wherein a value k determined from an intrinsic viscosity [η] 1 [dL/g] of a 1-mol/L aqueous sodium nitrate solution of the polymer at 30°C and an intrinsic viscosity [η] 0.01 [dL/g] of a 0.01-mol/L aqueous sodium nitrate solution of the polymer at 30°C in accordance with formula (I) is 0.8 to 2.2 exclusive, k = η 0.01 − η 1 / 9 wherein the intrinsic viscosity is measured according to the method detailed at of the description.
A load carrier roof bar configured on vehicle roof surfaces to allow placing extended or unusually shaped items, whose volumetric structures do not comply with the trunk, comprising a carrier bar and fixing group , wherein; it comprises - a jaw holder attached to the said fixing group rotatably along a vertical axis (Z1) by means of vertical fixing element , - and a rotation axis gap which provides a bearing for the rotational motion of the said jaw holder about the vertical axis (Z1), - wherein it comprises a moving jaw and fixed jaw fixed to the said jaw holder along a single horizontal axis (Y1) by means of a horizontal fixing element , - wherein it comprises a spring (206.1), which is centered with the said horizontal fixing element , applying a continuous force to the said moving jaw . - a jaw holder attached to the said fixing group rotatably along a vertical axis (Z1) by means of vertical fixing element , - and a rotation axis gap which provides a bearing for the rotational motion of the said jaw holder about the vertical axis (Z1), - wherein it comprises a moving jaw and fixed jaw fixed to the said jaw holder along a single horizontal axis (Y1) by means of a horizontal fixing element , - wherein it comprises a spring (206.1), which is centered with the said horizontal fixing element , applying a continuous force to the said moving jaw .
A method of generating an ultrasound image, the method comprising: setting a focal point in an object ; transmitting, based on a location of the focal point , ultrasound signals into the object by using a plurality of elements in a transducer ; receiving, via the plurality of elements , ultrasound echo signals obtained by reflecting the ultrasound signals from the object ; and performing beamforming on the received ultrasound echo signals, wherein the performing beamforming of the received ultrasound echo signals comprises: setting (S710), based on the location of the focal point , a plurality of delay times respectively corresponding to the plurality of elements; determining (S730) the number of capacitors to be used for time delay, respectively corresponding to the plurality of elements based on the set plurality of delay times, such that a time when a signal is not stored in a capacitor used for the time delay is less than a predetermined time; and respectively performing (S750) the beamforming on the received ultrasound echo signals by using the determined number of capacitors . setting a focal point in an object ; transmitting, based on a location of the focal point , ultrasound signals into the object by using a plurality of elements in a transducer ; receiving, via the plurality of elements , ultrasound echo signals obtained by reflecting the ultrasound signals from the object ; and performing beamforming on the received ultrasound echo signals, wherein the performing beamforming of the received ultrasound echo signals comprises: setting (S710), based on the location of the focal point , a plurality of delay times respectively corresponding to the plurality of elements; determining (S730) the number of capacitors to be used for time delay, respectively corresponding to the plurality of elements based on the set plurality of delay times, such that a time when a signal is not stored in a capacitor used for the time delay is less than a predetermined time; and respectively performing (S750) the beamforming on the received ultrasound echo signals by using the determined number of capacitors . setting (S710), based on the location of the focal point , a plurality of delay times respectively corresponding to the plurality of elements; determining (S730) the number of capacitors to be used for time delay, respectively corresponding to the plurality of elements based on the set plurality of delay times, such that a time when a signal is not stored in a capacitor used for the time delay is less than a predetermined time; and respectively performing (S750) the beamforming on the received ultrasound echo signals by using the determined number of capacitors .
A method, performed in a first communication device , for setting operation modes of at least a second communication device of a group of connected communication devices in a communication network, wherein the group of communication devices comprises said first communication device and at least said second communication device, the method comprises: • receiving (S11) information representing environmental data from at least one of said communication devices of said group of communication devices; and • determining (S12) a power saving mode based on said received information; said method being characterized by : • setting the operation mode (S13) of at least said second communication device of said group of communication devices to said determined power saving mode. • receiving (S11) information representing environmental data from at least one of said communication devices of said group of communication devices; and • determining (S12) a power saving mode based on said received information; • setting the operation mode (S13) of at least said second communication device of said group of communication devices to said determined power saving mode.
A system , comprising: a real-time domain including a real-time cache ; and a non-real-time domain including a non-real-time cache , wherein the system is configured to implement a cache coherency protocol by indicating that a cache line may be shared between the real-time cache and the non-real-time cache . a real-time domain including a real-time cache ; and a non-real-time domain including a non-real-time cache , wherein the system is configured to implement a cache coherency protocol by indicating that a cache line may be shared between the real-time cache and the non-real-time cache .
An aerosol-generating system comprising: an aerosol-generating device comprising: a housing having an air outlet and an air inlet ; an airflow channel fluidly connecting the air outlet with the air inlet ; a rotatable heating element coupled to the housing and along the airflow channel ; a cartridge receiving cavity defined withing the housing and configured to receive a cartridge containing a tape ; a cartridge received within the cartridge receiving cavity and the heating element in contact with the tape , the cartridge comprising; the tape extending from a first end to a second end; a rotatable supply reel fixed within the cartridge ; a rotatable take-up reel fixed within the cartridge ; and the first end of the tape fixed to the rotatable take-up reel and the second end of the tape fixed to the rotatable supply reel ; a solid aerosol-generating substrate disposed on the tape , the solid aerosol-generating substrate comprising nicotine and glycerol. an aerosol-generating device comprising: a housing having an air outlet and an air inlet ; an airflow channel fluidly connecting the air outlet with the air inlet ; a rotatable heating element coupled to the housing and along the airflow channel ; a cartridge receiving cavity defined withing the housing and configured to receive a cartridge containing a tape ; a housing having an air outlet and an air inlet ; an airflow channel fluidly connecting the air outlet with the air inlet ; a rotatable heating element coupled to the housing and along the airflow channel ; a cartridge receiving cavity defined withing the housing and configured to receive a cartridge containing a tape ; a cartridge received within the cartridge receiving cavity and the heating element in contact with the tape , the cartridge comprising; the tape extending from a first end to a second end; a rotatable supply reel fixed within the cartridge ; a rotatable take-up reel fixed within the cartridge ; and the first end of the tape fixed to the rotatable take-up reel and the second end of the tape fixed to the rotatable supply reel ; a solid aerosol-generating substrate disposed on the tape , the solid aerosol-generating substrate comprising nicotine and glycerol. the tape extending from a first end to a second end; a rotatable supply reel fixed within the cartridge ; a rotatable take-up reel fixed within the cartridge ; and the first end of the tape fixed to the rotatable take-up reel and the second end of the tape fixed to the rotatable supply reel ; a solid aerosol-generating substrate disposed on the tape , the solid aerosol-generating substrate comprising nicotine and glycerol.
Spinal implant comprising: a body having an upper surface , a lower surface , an anterior portion , and a posterior portion , the body being configured for midline insertion between vertebral bodies of a patient's spine; and one or more apertures within the anterior portion of the body for receiving at least one fixation element , whereby at least one of the apertures is configured with a tactile or visual feedback response feature to allow the user to know when the at least one fixation element is fully seated characterized in that the tactile feedback response feature comprises a countersink with a center that is offset to an axis of the aperture , a portion of the countersink having a spherically shaped surface , and a position of the spherically shaped surface being defined by a spherical radius center (SR). a body having an upper surface , a lower surface , an anterior portion , and a posterior portion , the body being configured for midline insertion between vertebral bodies of a patient's spine; and one or more apertures within the anterior portion of the body for receiving at least one fixation element , whereby at least one of the apertures is configured with a tactile or visual feedback response feature to allow the user to know when the at least one fixation element is fully seated characterized in that the tactile feedback response feature comprises a countersink with a center that is offset to an axis of the aperture , a portion of the countersink having a spherically shaped surface , and a position of the spherically shaped surface being defined by a spherical radius center (SR).
Dolutegravir sodium Form-L9 characterized by a powder X-Ray diffraction pattern having peaks at about 6.1, 8.6, 12.1, 13.4, 17.1, 18.6, 19.3, 22.4, 23.8, 25.4 and 26.3 ± 0.2° 2θ.
A method for manufacturing a separator, comprising the steps of: (S1) preparing a pre-dispersion comprising inorganic particles dispersed in a solvent and a first binder polymer dissolved in the solvent; (S2) milling the pre-dispersion preliminarily; (S3) preparing a binder polymer solution comprising a second binder polymer dissolved in a solvent, wherein the weight ratio of the first binder polymer to the second binder polymer is controlled to 0.5:99.5-10:90; (S4) mixing the pre-dispersion with the binder polymer solution and carrying out milling secondarily to obtain slurry for forming a porous coating layer, wherein the milling is carried out in such a manner that the secondary milling time is 30-99% of the sum of the preliminary milling time with the secondary milling time; and (S5) applying the slurry for forming a porous coating layer to at least one surface of a porous polymer substrate, followed by drying. (S1) preparing a pre-dispersion comprising inorganic particles dispersed in a solvent and a first binder polymer dissolved in the solvent; (S2) milling the pre-dispersion preliminarily; (S3) preparing a binder polymer solution comprising a second binder polymer dissolved in a solvent, wherein the weight ratio of the first binder polymer to the second binder polymer is controlled to 0.5:99.5-10:90; (S4) mixing the pre-dispersion with the binder polymer solution and carrying out milling secondarily to obtain slurry for forming a porous coating layer, wherein the milling is carried out in such a manner that the secondary milling time is 30-99% of the sum of the preliminary milling time with the secondary milling time; and (S5) applying the slurry for forming a porous coating layer to at least one surface of a porous polymer substrate, followed by drying.
A method for producing a woven plastic bag, wherein a flat-lying material web is fed along a production direction (P), which material web comprises a woven fabric of plastic strips on a first side, wherein the material web comprises opposite edge regions extending perpendicular to the production direction (P) along a transverse direction (Q) and each extending over 10 % of the width of the material web, and a middle section in between, wherein the material web is provided with a pattern that repeats along the production direction (P) on the first side of the material web only in regions having a coating in the form of a film or in the form of a liquid plastic, wherein the material web is formed into a material tube and wherein in order to form individual woven plastic bags, pieces are cut from the material tube, filled and closed, characterized in that on the middle section the application of the coating changes in the transverse direction (Q), wherein the coating is applied in the form of strips (7, 7") running in the transverse direction (Q), wherein the strips (7, 7") only extend over 40 to 60 % of the width.
An anti-motion sickness device fitted to a motor vehicle , characterized in that the anti-motion sickness device comprises: - a triaxial accelerometer configured to detect the accelerations of the vehicle along 3 axes and emit a corresponding acceleration signal; - display means (12, 12', 12") of light markers capable of forming at least one first artificial horizon line at the level of a first internal surface of the motor vehicle and at least one second artificial horizon line at a second internal surface of the motor vehicle, said first and second artificial horizon lines (14, 16; 14', 16') being perpendicular or substantially perpendicular to each other; - a control unit capable of receiving the acceleration signals emitted by the accelerometer and of driving the display means (12, 12', 12") such that the first and second artificial horizon lines (14 , 16; 14', 16') are aligned in a horizontal plane (A), perpendicular or substantially perpendicular to the gravitational vector, whatever the accelerations of the vehicle, the control unit being moreover configured to process said acceleration signals, prior to controlling the display means (12, 12', 12"), so as to determine in real time an acceleration frequency along each of the axes of the accelerometer and to control said display means (12, 12', 12") only when said acceleration frequency is less than a threshold frequency below which the motion sickness is likely to occur. - a triaxial accelerometer configured to detect the accelerations of the vehicle along 3 axes and emit a corresponding acceleration signal; - display means (12, 12', 12") of light markers capable of forming at least one first artificial horizon line at the level of a first internal surface of the motor vehicle and at least one second artificial horizon line at a second internal surface of the motor vehicle, said first and second artificial horizon lines (14, 16; 14', 16') being perpendicular or substantially perpendicular to each other; - a control unit capable of receiving the acceleration signals emitted by the accelerometer and of driving the display means (12, 12', 12") such that the first and second artificial horizon lines (14 , 16; 14', 16') are aligned in a horizontal plane (A), perpendicular or substantially perpendicular to the gravitational vector, whatever the accelerations of the vehicle, the control unit being moreover configured to process said acceleration signals, prior to controlling the display means (12, 12', 12"), so as to determine in real time an acceleration frequency along each of the axes of the accelerometer and to control said display means (12, 12', 12") only when said acceleration frequency is less than a threshold frequency below which the motion sickness is likely to occur.