mhurhangee/patent-ind-claim-en huggingface dataset:
A merchandise display system comprising: a front rail , the front rail comprising a front protrusion ; and at least one divider configured to attach to the front rail , the divider comprising a divider floor extending in a horizontal plane, configured to hold product, the divider further comprising a pusher mechanism , the divider further comprising a recess , and the divider further comprising a rotatable lock attached to a front portion of the divider ; the divider is lowerable into contact with the front rail , the recess of the divider is configured to engage the front protrusion of the front rail , when the divider is lowered into contact with the front rail , wherein the divider can be moved in a lateral direction parallel to the front rail , when the recess of the divider is engaged with the front protrusion of the front rail , the rotatable lock of the divider is rotatable to engage the divider to the front rail wherein the divider cannot be moved in a lateral direction parallel to the front rail , and wherein the rotatable lock is configured to rotate around an axis that extends in a lateral direction parallel to the front rail . a front rail , the front rail comprising a front protrusion ; and at least one divider configured to attach to the front rail , the divider comprising a divider floor extending in a horizontal plane, configured to hold product, the divider further comprising a pusher mechanism , the divider further comprising a recess , and the divider further comprising a rotatable lock attached to a front portion of the divider ; the divider is lowerable into contact with the front rail , the recess of the divider is configured to engage the front protrusion of the front rail , when the divider is lowered into contact with the front rail , wherein the divider can be moved in a lateral direction parallel to the front rail , when the recess of the divider is engaged with the front protrusion of the front rail , the rotatable lock of the divider is rotatable to engage the divider to the front rail wherein the divider cannot be moved in a lateral direction parallel to the front rail , and wherein the rotatable lock is configured to rotate around an axis that extends in a lateral direction parallel to the front rail .
A laminate comprising: a first film , of a first material having a first refractive index, including a pattern of microstructures embossed on a first surface of the first film, each microstructure of the embossed pattern of microstructures being an optical microstructure arranged at a predetermined distance between adjacent optical microstructures; and a second film , of a second material having a second refractive index, including structures arranged on a first surface of the second film at positions corresponding to areas of the first surface of the first film defined by the predetermined distance between adjacent optical microstructures, wherein when the second film is laminated to the first film, the structures arranged on the first surface of the second film are in contact with the areas of the first surface of the first film defined by the predetermined distance between adjacent optical microstructures, a height of the structures of the second film is greater than a height of each optical microstructure , and a delta between the height of the structures of the second film and the height of each optical microstructure encapsulates, upon the lamination of the second film to the first film, a void fill material within at least a portion of at least one void defined by the delta, the void fill material having a predetermined refractive index. a first film , of a first material having a first refractive index, including a pattern of microstructures embossed on a first surface of the first film, each microstructure of the embossed pattern of microstructures being an optical microstructure arranged at a predetermined distance between adjacent optical microstructures; and a second film , of a second material having a second refractive index, including structures arranged on a first surface of the second film at positions corresponding to areas of the first surface of the first film defined by the predetermined distance between adjacent optical microstructures, wherein when the second film is laminated to the first film, the structures arranged on the first surface of the second film are in contact with the areas of the first surface of the first film defined by the predetermined distance between adjacent optical microstructures, a height of the structures of the second film is greater than a height of each optical microstructure , and a delta between the height of the structures of the second film and the height of each optical microstructure encapsulates, upon the lamination of the second film to the first film, a void fill material within at least a portion of at least one void defined by the delta, the void fill material having a predetermined refractive index.
Excavator finger of a bucket intended to be mounted on an excavator chain for a device for excavating ballast below a railroad track , the finger being one-piece and comprising: - a retaining portion having a rotational symmetry about a reference axis (X) of the finger , the retaining portion being intended to be housed in a cylindrical housing of the bucket , and - a tip intended to protrude out of the cylindrical housing of the bucket , the excavator finger being characterized in that the retaining portion comprises a body which extends along a cylindrical shell that is substantially complementary to the cylindrical housing such that the body of the finger is guided in translation by the cylindrical housing and which comprises a plurality of annular grooves , each of which is configured to receive at least part of a locking pin and intended to ensure axial retention of the retaining portion in the cylindrical housing in a corresponding axial position of the finger such that the finger is freely rotatable about its reference axis (X), the annular grooves being mutually parallel and mutually spaced so as to allow indexation of the finger by the locking pin into a corresponding axial position. - a retaining portion having a rotational symmetry about a reference axis (X) of the finger , the retaining portion being intended to be housed in a cylindrical housing of the bucket , and - a tip intended to protrude out of the cylindrical housing of the bucket ,
A method for resisting ageing and enhancing sternness characteristics of human mesenchymal stem cells in vitro, comprising co-culturing immune cells derived from human peripheral blood comprising human peripheral blood lymphocytes, with human mesenchymal stem cells, the co-culturing being in contact mode at a cell number ratio of the human peripheral blood lymphocytes to the human mesenchymal stem cells of 100 to 400:1.
Flexible self-adhesive mineral wool laminate, comprising - a mineral wool insulation mat with a first main face and second main face, - a first facing laminated onto the first main face of the mineral wool insulation mat, - a second facing which is a double-sided adhesive structure adhered with one if its adhesive faces to the second main face of the mineral wool insulation mat, the double-sided adhesive structure being selected from the group consisting of a polymeric carrier coated on both sides with a pressure-sensitive adhesive coating, a film made of a pressure sensitive adhesive, and a layer of a pressure sensitive adhesive directly applied onto the second main face of the mineral wool insulation mat, the laminate being characterized by the fact that the double-sided adhesive structure comprises a plurality of through-holes. - a mineral wool insulation mat with a first main face and second main face, - a first facing laminated onto the first main face of the mineral wool insulation mat, - a second facing which is a double-sided adhesive structure adhered with one if its adhesive faces to the second main face of the mineral wool insulation mat, the double-sided adhesive structure being selected from the group consisting of a polymeric carrier coated on both sides with a pressure-sensitive adhesive coating, a film made of a pressure sensitive adhesive, and a layer of a pressure sensitive adhesive directly applied onto the second main face of the mineral wool insulation mat,
An ultrasound diagnosis apparatus for analyzing a contrast enhanced ultrasound image with respect to an object to which an ultrasound contrast medium has been administered, the contrast enhanced ultrasound image being obtained by transmitting ultrasound waves to the object and receiving echo signals reflected from the object, the ultrasound diagnosis apparatus comprising: an ultrasound image processor configured to set a region of interest (ROI) in the ultrasound image and acquire a time intensity curve representing an intensity value for each of ultrasound image frames in the set ROI and a fitting curve representing a tendency of the time intensity curve according to a preset mathematical model; a user input unit configured to display a user interface that receives a user input, characterized by an ultrasound image analyzer configured to calculate a difference between the time intensity curve and the fitting curve for each of the ultrasound image frames; and is further configured to determine a defective frame from among the ultrasound image frames when the calculated difference exceeds a threshold value for a frame, and the user input unit is further configured to display a graphical user interface (GUI) related to the defective frame. an ultrasound image processor configured to set a region of interest (ROI) in the ultrasound image and acquire a time intensity curve representing an intensity value for each of ultrasound image frames in the set ROI and a fitting curve representing a tendency of the time intensity curve according to a preset mathematical model; a user input unit configured to display a user interface that receives a user input, characterized by an ultrasound image analyzer configured to calculate a difference between the time intensity curve and the fitting curve for each of the ultrasound image frames; and is further configured to determine a defective frame from among the ultrasound image frames when the calculated difference exceeds a threshold value for a frame, and the user input unit is further configured to display a graphical user interface (GUI) related to the defective frame.
A scaffold complex, comprising a plurality of pores present on or within a surface of the scaffold complex, wherein the pores are present at a concentration of at least 50 pores per cm 2 of the surface, and wherein at least 80% of the pores have an average pore diameter on the surface that is at least 5 microns, and comprising a non-woven polymeric fiber having a mean diameter of from 100 nm to 8000 nm covalently linked to a hydrogel-binding moiety, wherein the polymeric fiber comprises electrospun polycaprolactone, and wherein the hydrogel-binding moiety is bonded to the outer surface of the polymer fiber, wherein: the hydrogel-binding moiety comprises a sequence selected from the group consisting of hyaluronic acid binding peptides selected from GAHWQFNALTVR, LKQKIKHVVKLKVVVKLRSQLVKRKQN, and STMMSRSHKTRSHH and collagen binding peptide GLRSKSKKFRRPDIQYPDATDEDITSHM, wherein the hydrogel-binding moiety optionally comprises a second sequence selected from the group consisting of hyaluronic acid binding peptides selected from CRRDDGAHWQFNALTVR, LKQKIKHVVKLKVVVKLRSQLVKRKQN, and STMMSRSHKTRSHHV and collagen binding peptide GLRSKSKKFRRPDIQYPDATDEDITSHM; and wherein the hydrogel-binding moiety is associated with a hydrogel material, wherein the hydrogel material is selected from the group comprising hyaluronic acid, collagen or a combination thereof, or a processed tissue extracellular matrix; and further comprising a cross-linking moiety present in an amount effective to induce cross-linking between polycaprolactone fiber and hyaluronic acid.. the hydrogel-binding moiety comprises a sequence selected from the group consisting of hyaluronic acid binding peptides selected from GAHWQFNALTVR, LKQKIKHVVKLKVVVKLRSQLVKRKQN, and STMMSRSHKTRSHH and collagen binding peptide GLRSKSKKFRRPDIQYPDATDEDITSHM, wherein the hydrogel-binding moiety optionally comprises a second sequence selected from the group consisting of hyaluronic acid binding peptides selected from CRRDDGAHWQFNALTVR, LKQKIKHVVKLKVVVKLRSQLVKRKQN, and STMMSRSHKTRSHHV and collagen binding peptide GLRSKSKKFRRPDIQYPDATDEDITSHM; and wherein the hydrogel-binding moiety is associated with a hydrogel material, wherein the hydrogel material is selected from the group comprising hyaluronic acid, collagen or a combination thereof, or a processed tissue extracellular matrix;
An elongated microdialysis device comprising a distal part and a proximal part , said proximal part comprising an inlet and an outlet , said inlet and outlet adapted to allow a fluid to flow through said microdialysis device from said inlet through said proximal part via said distal part and back to said outlet , along substantially an entire length of said microdialysis device , wherein said distal part of said microdialysis device is configured for temporary attachment and/or placement on a surface of a human or animal organ, and said distal part comprises a probe for sampling substances present on said surface of said organ and indicating a condition of said organ, said probe comprising an inlet channel adapted to receive fluid originating from said inlet , an outlet channel adapted to receive fluid originating from said inlet channel , wherein at least part of an outer surface of said probe is adapted to be placed on said surface of an organ, said part of an outer surface of said probe comprising a semi-permeable material adapted to allow passage of substances from the outside of said probe through said semi-permeable material into said fluid within said microdialysis device , wherein said device comprises an attachment sheet , said attachment sheet being configured to facilitate placement and/or attachment of said probe to said organ surface, the side of the probe comprising the semi-permeable material being adapted to lie against said organ surface, characterized in that said attachment sheet is adapted to cover said probe when said distal part is arranged on said surface of a human or animal organ, said probe being covered on the side facing away from the sampling site, and wherein said attachment sheet is made of a substantially fluid-tight material to minimize access of surrounding fluids and/or tissue to said semi-permeable material of said probe. wherein said distal part of said microdialysis device is configured for temporary attachment and/or placement on a surface of a human or animal organ, and said distal part comprises a probe for sampling substances present on said surface of said organ and indicating a condition of said organ, said probe comprising an inlet channel adapted to receive fluid originating from said inlet , an outlet channel adapted to receive fluid originating from said inlet channel , wherein at least part of an outer surface of said probe is adapted to be placed on said surface of an organ, said part of an outer surface of said probe comprising a semi-permeable material adapted to allow passage of substances from the outside of said probe through said semi-permeable material into said fluid within said microdialysis device ,
HIGH PRECISION RADAR TO TRACK AERIAL TARGETS, installed on the ground, in a container or in a vehicle, which determines the following parameters of the target, namely, azimuth angle (θ a ), elevation angle (θ e ), range, speed and flying direction and transmits them to another system, wherein the radar comprises a system using an array of two collinear antennas with narrow beam in elevation, installed on a platform and rotating around a vertical axis at a rotational speed of at least 50 rpm, wherein the pointing direction of the said array varies between 0° and 90° by means of an elevation positioning motor in elevation which is monitored through the feedback of the signal resulting from processing data of previous measurements, wherein the beamwidth of each antenna in elevation is approximately 3 degrees, the precise elevation angle of target (θ e ) being determined by interferometry; wherein the width of the beam in azimuth is 120 degrees; and wherein an increase in resolution in azimuth is obtained via the ROSAR technique through correlation of the signal detected by the said antennas and a + 1/ - 1 step function, wherein an adder is configured to sum the signals of target localizers , gaining 3 dB, wherein a correlator is configured to correlate an output lobe of the adder and the + 1/ - 1 function, wherein a zero localizer is configured to search for a transition of said correlated signal through zero. wherein the radar comprises a system using an array of two collinear antennas with narrow beam in elevation, installed on a platform and rotating around a vertical axis at a rotational speed of at least 50 rpm, wherein the pointing direction of the said array varies between 0° and 90° by means of an elevation positioning motor in elevation which is monitored through the feedback of the signal resulting from processing data of previous measurements, wherein the beamwidth of each antenna in elevation is approximately 3 degrees, the precise elevation angle of target (θ e ) being determined by interferometry; wherein the width of the beam in azimuth is 120 degrees; and wherein an increase in resolution in azimuth is obtained via the ROSAR technique through correlation of the signal detected by the said antennas and a + 1/ - 1 step function, wherein an adder is configured to sum the signals of target localizers , gaining 3 dB, wherein a correlator is configured to correlate an output lobe of the adder and the + 1/ - 1 function, wherein a zero localizer is configured to search for a transition of said correlated signal through zero.
A control device which is mounted in a vehicle including a battery and a CO 2 recovery device using electric power of the battery to recover CO 2 contained in inflowing gas, and which controls the CO 2 recovery device , wherein the control device permits operation of the CO 2 recovery device in the case where a high efficiency recovery condition, at which it is predicted that the efficiency of recovery of CO 2 , showing a ratio of the amount of recovery of CO 2 in the CO 2 recovery device with respect to the electric power consumed by the battery , will become equal to or greater than a preset predetermined efficiency, is satisfied, and prohibits operation of the CO 2 recovery device in the case where the high efficiency recovery condition is not satisfied, and wherein either (i) the gas flowing into the CO 2 recovery device is a gas discharged from an internal combustion engine mounted in the vehicle , or (ii) the gas flowing into the CO 2 recovery device is air around the vehicle . the control device permits operation of the CO 2 recovery device in the case where a high efficiency recovery condition, at which it is predicted that the efficiency of recovery of CO 2 , showing a ratio of the amount of recovery of CO 2 in the CO 2 recovery device with respect to the electric power consumed by the battery , will become equal to or greater than a preset predetermined efficiency, is satisfied, and prohibits operation of the CO 2 recovery device in the case where the high efficiency recovery condition is not satisfied, and wherein either (i) the gas flowing into the CO 2 recovery device is a gas discharged from an internal combustion engine mounted in the vehicle , or (ii) the gas flowing into the CO 2 recovery device is air around the vehicle .
A spiral wound module assembly comprising: a pressure vessel comprising: a chamber extending along an axis (X) between a first end and a second end , at least one feed inlet port , concentrate outlet port and permeate outlet port , and a removable end plate located at the first end of the vessel, wherein the permeate outlet port extends axially through the removable end plate ; a plurality of spiral wound modules axially aligned in serial arrangement within the chamber with a first module located adjacent the first end and a second module located adjacent the second end , wherein each spiral wound module comprises at least one membrane envelope wound about a permeate collection tube and wherein the permeate collection tubes of each spiral wound module are in sealed fluid communication with each other; a permeate adaptor tube in sealed fluid communication with the permeate collection tube of the first spiral wound module and the permeate outlet port , wherein the permeate adaptor tube defines an inner periphery adapted to contain permeate; and a gap space located between the first spiral wound module and the first end ; wherein the assembly is characterized by including a monitoring system comprising: a first set of sensors in contact with the inner periphery of the permeate adaptor tube ; and a micro-processing unit located in the gap space and connected to the first set of sensors by a first set of wires . a pressure vessel comprising: a chamber extending along an axis (X) between a first end and a second end , at least one feed inlet port , concentrate outlet port and permeate outlet port , and a removable end plate located at the first end of the vessel, wherein the permeate outlet port extends axially through the removable end plate ; a plurality of spiral wound modules axially aligned in serial arrangement within the chamber with a first module located adjacent the first end and a second module located adjacent the second end , wherein each spiral wound module comprises at least one membrane envelope wound about a permeate collection tube and wherein the permeate collection tubes of each spiral wound module are in sealed fluid communication with each other; a permeate adaptor tube in sealed fluid communication with the permeate collection tube of the first spiral wound module and the permeate outlet port , wherein the permeate adaptor tube defines an inner periphery adapted to contain permeate; and a gap space located between the first spiral wound module and the first end ; wherein the assembly is characterized by including a monitoring system comprising: a first set of sensors in contact with the inner periphery of the permeate adaptor tube ; and a micro-processing unit located in the gap space and connected to the first set of sensors by a first set of wires . a first set of sensors in contact with the inner periphery of the permeate adaptor tube ; and a micro-processing unit located in the gap space and connected to the first set of sensors by a first set of wires .
A latex composition for dip-molding comprising a carboxylic acid-modified nitrile based copolymer latex copolymerized from conjugated diene-based monomers, ethylenically unsaturated nitrile monomers and ethylenically unsaturated acid monomers; and sodium polysulfide.