mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus used for the handling of flat material and/or film material wound onto rolls , the apparatus comprising - at least one installation position (EB1; EB2) provided for the rotating reception of rolls of flat material and/or film material ; - at least one coupling means used for the connection of free end sections of flat material and/or film material of the rolls in the at least one installation position (EB1, EB2) to flat material and/or film material that is being guided inside the apparatus for packaging purposes, characterised in that the apparatus further comprises: - at least one suction instrument with at least one attachment, by way of which a negative pressure is applicable to the flat material and/or film material for the purpose of gripping the free end section of flat material and/or film material , wherein - the suction instrument has a multitude of suction areas distributed over the suction instrument , which suction areas are each chargeable with negative pressure. - at least one installation position (EB1; EB2) provided for the rotating reception of rolls of flat material and/or film material ; - at least one coupling means used for the connection of free end sections of flat material and/or film material of the rolls in the at least one installation position (EB1, EB2) to flat material and/or film material that is being guided inside the apparatus for packaging purposes, - at least one suction instrument with at least one attachment, by way of which a negative pressure is applicable to the flat material and/or film material for the purpose of gripping the free end section of flat material and/or film material , wherein - the suction instrument has a multitude of suction areas distributed over the suction instrument , which suction areas are each chargeable with negative pressure.
An attachment for a heated stand mixer configured to temporarily adapt the stand mixer for performing sous-vide cooking, the attachment comprising coupling means whereby the attachment can be readily coupled to and removed from the stand mixer , wherein the coupling means comprises a shaft and means for coupling the shaft to a driving head of the stand mixer so as to pick up rotational drive therefrom, the attachment further comprising one or more arms radiating outwardly from the region of said shaft , wherein the or each said radiating arm is configured to hold vacuum-packed foods to act as paddles thereby creating a stirring action.
An air duct shielding device suitable for an air-cooled refrigerator, the air duct shielding device comprising: a fan base having a plurality of air outlets ; a first adjusting part having a rotary disc portion and a plurality of first shielding sheets arranged at intervals, the first adjusting part being configured to controllably rotate around an axis of the rotary disc portion; and characterized by a second adjusting part provided between the first adjusting part and the fan base, the second adjusting part having a plurality of second shielding sheets arranged at intervals; wherein when the first adjusting part rotates around the axis of the rotary disc portion, the second adjusting part is driven to rotate, such that the first shielding sheet and/or the second shielding sheet completely shield(s), partially shield(s) or completely expose(s) each air outlet, thereby adjusting an air outlet area of each of the plural air outlets. a fan base having a plurality of air outlets ; a first adjusting part having a rotary disc portion and a plurality of first shielding sheets arranged at intervals, the first adjusting part being configured to controllably rotate around an axis of the rotary disc portion; and characterized by a second adjusting part provided between the first adjusting part and the fan base, the second adjusting part having a plurality of second shielding sheets arranged at intervals; wherein when the first adjusting part rotates around the axis of the rotary disc portion, the second adjusting part is driven to rotate, such that the first shielding sheet and/or the second shielding sheet completely shield(s), partially shield(s) or completely expose(s) each air outlet, thereby adjusting an air outlet area of each of the plural air outlets.
A method for use in sperm analysis, the method comprising: - processing measured data comprising at least interferometric phase data of a label-free sperm cell, and determining a topographic optical phase delay (OPD) map of the label-free sperm cell; - utilizing the OPD map and a characteristic refractive index map comprising refractive indices being characteristic of one or more organelles of sperm cells to determine at least one morphological parameter of the one or more organelles of the label-free sperm cell; and - utilizing the at least one morphological parameter for generating a sperm quantitative quality score for the label-free sperm cell. - processing measured data comprising at least interferometric phase data of a label-free sperm cell, and determining a topographic optical phase delay (OPD) map of the label-free sperm cell; - utilizing the OPD map and a characteristic refractive index map comprising refractive indices being characteristic of one or more organelles of sperm cells to determine at least one morphological parameter of the one or more organelles of the label-free sperm cell; and - utilizing the at least one morphological parameter for generating a sperm quantitative quality score for the label-free sperm cell.
A network apparatus comprising: at least one processor; and at least one memory including computer program code for one or more programs, the at least one processor, the at least one memory, and the computer program code configured to cause the network apparatus to at least: receive a channel measurement report from a user equipment before a secondary cell is operational to the user equipment to transmit and receive user data; and determine from the receipt of the channel measurement report, an indication of the secondary cell being activated at the user equipment and a readiness at the user equipment to access the secondary cell, wherein the readiness comprises a delay from the time the secondary cell is active to a time the secondary cell becomes operational, and wherein the delay is of fixed 24 transmission time intervals, TTIs, for the user equipment . at least one processor; and at least one memory including computer program code for one or more programs, the at least one processor, the at least one memory, and the computer program code configured to cause the network apparatus to at least: receive a channel measurement report from a user equipment before a secondary cell is operational to the user equipment to transmit and receive user data; and determine from the receipt of the channel measurement report, an indication of the secondary cell being activated at the user equipment and a readiness at the user equipment to access the secondary cell, wherein the readiness comprises a delay from the time the secondary cell is active to a time the secondary cell becomes operational, and wherein the delay is of fixed 24 transmission time intervals, TTIs, for the user equipment . receive a channel measurement report from a user equipment before a secondary cell is operational to the user equipment to transmit and receive user data; and determine from the receipt of the channel measurement report, an indication of the secondary cell being activated at the user equipment and a readiness at the user equipment to access the secondary cell, wherein the readiness comprises a delay from the time the secondary cell is active to a time the secondary cell becomes operational, and wherein the delay is of fixed 24 transmission time intervals, TTIs, for the user equipment .
A coating solution comprising a plurality of silver nanostructures, wherein with regard to the diameter of the silver nanostructures, at least one of the following two criteria is fulfilled: (i) more than 80% of the silvernanostructures with aspect ratios of at least 3 are less than 25 nm in diameter, and (ii) the silvernanostructures with aspect ratios of at least 3 have a mean diameter of between 21 and 23 nm and a standard deviation in the range of 3 to 4 nm, and wherein with regard to the length of the silver nanostructures, at least one of the following two criteria is fulfilled: (iii) the silver nanostructures with aspect ratios of at least 3 have a mean length of 12-20 μm, and a standard deviation of 6 to 8 μm, and (iv) more than 85% of the silver nanostructures with aspect ratios of at least 3 have a length within 5-25 μm. (i) more than 80% of the silvernanostructures with aspect ratios of at least 3 are less than 25 nm in diameter, and (ii) the silvernanostructures with aspect ratios of at least 3 have a mean diameter of between 21 and 23 nm and a standard deviation in the range of 3 to 4 nm, and wherein with regard to the length of the silver nanostructures, at least one of the following two criteria is fulfilled: (iii) the silver nanostructures with aspect ratios of at least 3 have a mean length of 12-20 μm, and a standard deviation of 6 to 8 μm, and (iv) more than 85% of the silver nanostructures with aspect ratios of at least 3 have a length within 5-25 μm.
A system for proliferation of stem cells in vitro in repositories or cellular cultures laboratories, by local application of an extremely low frequency (ELF) magnetic field (MF) comprised by a generator for producing a sinusoidal non harmonic extremely low frequency current signal, and at least a resonating medium conected connected to the generator , wherein, the generator provides a constant sinusoidal non harmonic extremely low frequency current signal which has a value IRMS= 0,195 A, one predetermined frequency chosen substantially from the range between 7.65 Hz and 7.75 Hz, and an induction of the said magnetic field substantially which has a value BRM s = 0.75 mT at a distance of 3 mm from the solenoid surface of the resonating medium, with harmonics substantially inferior to 0,2%, comprising: a quartz oscillator which generates a rectangular signal, initially of a high precision frequency, which is successively divided through an first integrated circuit at the output of which a desired frequency between 3 and 30 Hz is obtained, and through a 8 order Butterworth filter-type integrated circuit by means of which the rectangular signal is converted into a sinusoidal signal, and an multistage signal attenuator to provide only a current value to determine an induction in the range from 0.25mT-2mT, each stage of the attenuator leading to an increase by 0.25mT of the induction of the magnetic field obtained at an emitter of the resonating medium and wherein at least one resonance medium operably connected to the generator , comprises at least a coil member having number of loops wounded about an emitter made of paramagnetic material, the resonance medium being subjected to said current signal which has the one predetermined optimal frequency chosen substantially from the range between 7.65 Hz and 7.75 Hz, and , the induction of the said magnetic field substantially has a value B RMS 0.75 mT at a distance of 3 mm from the solenoid surface of the resonating medium , with harmonics substantially inferior to 0,2%; a quartz oscillator which generates a rectangular signal, initially of a high precision frequency, which is successively divided through an first integrated circuit at the output of which a desired frequency between 3 and 30 Hz is obtained, and through a 8 order Butterworth filter-type integrated circuit by means of which the rectangular signal is converted into a sinusoidal signal, and an multistage signal attenuator to provide only a current value to determine an induction in the range from 0.25mT-2mT, each stage of the attenuator leading to an increase by 0.25mT of the induction of the magnetic field obtained at an emitter of the resonating medium and wherein
A composition comprising a dose of genetically engineered CD4+ and CD8+ T cells for use in a method of treating an autoimmune or inflammatory disease in a subject, wherein: (i) the CD4+ and CD8+ T cells are at a ratio between 5:1 and 1:5; (ii) the dose of CD4+ and CD8+ T cells is between 1 × 10 6 to 1 × 10 11 cells; (iii) the CD4+ and CD8+ T cells are genetically engineered with a chimeric antigen receptor (CAR), wherein the CAR: (a) recognizes an antigen expressed by cells of the autoimmune or inflammatory disease, wherein the antigen is CD19; (b) comprises an extracellular antigen recognition domain and an intracellular signaling domain comprising an ITAM-containing sequence and an intracellular signaling domain of a T cell costimulatory molecule; and (iv) the CD4+ and CD8+ T cells are from a sample obtained from the subject with the autoimmune or inflammatory disease. (i) the CD4+ and CD8+ T cells are at a ratio between 5:1 and 1:5; (ii) the dose of CD4+ and CD8+ T cells is between 1 × 10 6 to 1 × 10 11 cells; (iii) the CD4+ and CD8+ T cells are genetically engineered with a chimeric antigen receptor (CAR), wherein the CAR: (a) recognizes an antigen expressed by cells of the autoimmune or inflammatory disease, wherein the antigen is CD19; (b) comprises an extracellular antigen recognition domain and an intracellular signaling domain comprising an ITAM-containing sequence and an intracellular signaling domain of a T cell costimulatory molecule; and (a) recognizes an antigen expressed by cells of the autoimmune or inflammatory disease, wherein the antigen is CD19; (b) comprises an extracellular antigen recognition domain and an intracellular signaling domain comprising an ITAM-containing sequence and an intracellular signaling domain of a T cell costimulatory molecule; and (iv) the CD4+ and CD8+ T cells are from a sample obtained from the subject with the autoimmune or inflammatory disease.
The use of a catalyst composition comprising a vanadate represented by formula (I) XVO 4 /S I wherein XVO 4 stands for (a) a Bi- or Al-vanadate, (a') a Sb- or Ga-vanadate or (b) a mixture of one or more of (a) with one or more rare earth metal-vanadates, or (c) a mixture of one or more of (a) with one or more transition metal-vanadates, or (d) a mixture of one or more of (a) with one or more transition metal-vanadates and one or more rare earth metal-vanadates, and S is a support comprising TiO 2 , for selective catalytic reduction of exhaust gases. XVO 4 stands for (a) a Bi- or Al-vanadate, (a') a Sb- or Ga-vanadate or (b) a mixture of one or more of (a) with one or more rare earth metal-vanadates, or (c) a mixture of one or more of (a) with one or more transition metal-vanadates, or (d) a mixture of one or more of (a) with one or more transition metal-vanadates and one or more rare earth metal-vanadates,
Process for manufacturing a resistive random access memory including the following steps: - depositing (S1) a layer made of an active material of variable electrical resistance on a substrate containing a first electrode , designated lower electrode; - depositing (S1) an electrically conductive layer on the layer of active material; - etching (S2) the electrically conductive layer so as to delimit a second electrode , designated upper electrode, facing the lower electrode ; - exposing (S3) at least one flank of the upper electrode to an ion beam inclined with respect to the normal to the substrate by an angle (α) comprised between 20° and 65°, so as to implant the ions in a portion of the layer of active material adjacent to said flank and situated under the upper electrode , characterized in that the ion implantation conditions are chosen so as to create defects in the structure of the active material and to obtain an average implantation width comprised between 5 nm and 10 nm and in that the ions are implanted at a dose comprised between 10 13 atoms.cm -2 and 10 16 atoms.cm -2 . - depositing (S1) a layer made of an active material of variable electrical resistance on a substrate containing a first electrode , designated lower electrode; - depositing (S1) an electrically conductive layer on the layer of active material; - etching (S2) the electrically conductive layer so as to delimit a second electrode , designated upper electrode, facing the lower electrode ; - exposing (S3) at least one flank of the upper electrode to an ion beam inclined with respect to the normal to the substrate by an angle (α) comprised between 20° and 65°, so as to implant the ions in a portion of the layer of active material adjacent to said flank and situated under the upper electrode ,
A medium discharging apparatus comprising: a first tray in which a medium (P) is received and placed; a second tray in which the medium discharged from the first tray is received; a discharging mechanism that discharges the medium from the first tray toward the second tray; and a first curl suppressing member that is located above a rear end region of the medium in a discharge direction; characterized in that said first curl supressing member moves so as to follow movement of the rear end region while maintaining attitude until the medium placed on the first tray is discharged from the first tray to the second tray by the discharging mechanism and placed on the second tray. a first tray in which a medium (P) is received and placed; a second tray in which the medium discharged from the first tray is received; a discharging mechanism that discharges the medium from the first tray toward the second tray; and a first curl suppressing member that is located above a rear end region of the medium in a discharge direction;
A non-pneumatic tire and wheel assembly comprising a radially inner wheel structure , a spoke ring structure having an inner ring that is mounted on a radially outer wheel structure mounting surface of the wheel structure , wherein the spoke ring structure has a plurality of spoke members , and a radially outer tread ring mounted on the outer circumference of the spoke ring structure , wherein the spoke ring structure includes a radially outer ring having an outer surface that is joined to a radially inner surface of the tread ring by an adhesive polymer and wherein the inner ring is attached to the radially outer wheel structure mounting surface of the wheel structure via an interference fit; and wherein the non-pneumatic tire and wheel assembly further has at least one or any combination of the following features: a) the inner ring is a discontinuous inner ring having one or more gaps between inner ring segments ; b) the radially inner wheel structure is axially recessed within the non-pneumatic tire and wheel assembly with respect to the maximum axial width of the spoke ring structure and/or the tread ring , c) at least one or all of the spoke members has/have an axially outer edge that is radiused or scalloped; d) each spoke member has a radially inner portion and a radially outer portion, wherein the radially inner portion has an axial width less than the radially outer portion. a) the inner ring is a discontinuous inner ring having one or more gaps between inner ring segments ; b) the radially inner wheel structure is axially recessed within the non-pneumatic tire and wheel assembly with respect to the maximum axial width of the spoke ring structure and/or the tread ring , c) at least one or all of the spoke members has/have an axially outer edge that is radiused or scalloped; d) each spoke member has a radially inner portion and a radially outer portion, wherein the radially inner portion has an axial width less than the radially outer portion.
(amended) A method for producing a composite material structure, the method comprising: a film attachment step of attaching a protective film to a molding member; a molding step of attaching a composite material which is a heating target to the molding member from above the protective film, accommodating the molding member in a pressure container, and molding a molded article; a molded article removal step of removing the molded article from the molding member to which the protective film is attached; and a painting step of directly painting a surface of the molded article which is mold released from the protective film, without performing sanding on the surface, wherein the protective film is a heat-resistance mold release film having a fluorine content of less than 0.1%. a film attachment step of attaching a protective film to a molding member; a molding step of attaching a composite material which is a heating target to the molding member from above the protective film, accommodating the molding member in a pressure container, and molding a molded article; a molded article removal step of removing the molded article from the molding member to which the protective film is attached; and a painting step of directly painting a surface of the molded article which is mold released from the protective film, without performing sanding on the surface, wherein the protective film is a heat-resistance mold release film having a fluorine content of less than 0.1%.
Multilayer laminate film assembly comprising at least two multilayer substrate films; each substrate film comprising at least a first outer layer and a second outer layer; wherein the at least two multilayer substrate films each comprise at least two layers of a different class of material, the class of material of the first outer layer differs from the class of material of the second outer layer; wherein in the laminate film assembly the at least two substrate films are laminated together, wherein the first outer layer of at least one, preferably each, substrate film is a sealing layer made from a thermo-sealable polymer selected from the group consisting of the classes of materials being polypropylenes, polyethylenes, polyamides, polyesters, ethylene vinyl alcohols, and lamination adhesives; and wherein the second outer layer of at least one, preferably each, substrate film is made from a material selected from the group consisting of the classes of materials being polypropylenes, polyesters, polyamides, and ethylene vinyl alcohols. wherein the first outer layer of at least one, preferably each, substrate film is a sealing layer made from a thermo-sealable polymer selected from the group consisting of the classes of materials being polypropylenes, polyethylenes, polyamides, polyesters, ethylene vinyl alcohols, and lamination adhesives; and wherein the second outer layer of at least one, preferably each, substrate film is made from a material selected from the group consisting of the classes of materials being polypropylenes, polyesters, polyamides, and ethylene vinyl alcohols.