mhurhangee/patent-ind-claim-en huggingface dataset:
A ground pressure distribution system for an at least two-part vehicle , comprising: • an articulated device , arranged between the two carriages and having at least one tilt axis (T), • at least one sensor and • a control unit, wherein the at least one sensor detects vehicle data which indicate a rearing up during acceleration or dipping during braking of the vehicle and is connected to the controller and the controller controls at least one actuator as a function of the vehicle data in order to counteract a rearing up during acceleration or dipping during braking, wherein the at least one actuator is operatively arranged with respect to the at least one tilt axis of the articulation device, wherein the at least one sensor detects at least one of: a drive torque and/or an engine torque and a gear stage and/or a vehicle position. • an articulated device , arranged between the two carriages and having at least one tilt axis (T), • at least one sensor and • a control unit, wherein the at least one sensor detects vehicle data which indicate a rearing up during acceleration or dipping during braking of the vehicle and is connected to the controller and the controller controls at least one actuator as a function of the vehicle data in order to counteract a rearing up during acceleration or dipping during braking, wherein the at least one actuator is operatively arranged with respect to the at least one tilt axis of the articulation device, wherein the at least one sensor detects at least one of: a drive torque and/or an engine torque and a gear stage and/or a vehicle position.
A method for predicting the clinical response to a therapy based on the administration of adipose tissue derived stromal stem cells (ASCs) in a patient suffering from an immune-mediated inflammatory disease, comprising determining in a blood sample from the patient the ratio of CD4+ T cells to T reg cells (CD4+/T reg ), wherein - an increased ratio of CD4+ T cells to T reg cells (CD4+/T reg ) with respect to a reference value is indicative of a clinical response to said therapy based on the administration of ASCs, wherein the reference value is obtained from the value of the ratio of CD4+ T cells to T reg cells (CD4+/T reg ) in a blood sample from one or more patients who do not respond to a therapy based on the administration of ASCs, wherein administration of ASCs is intravenous and wherein said immune-mediated inflammatory disease is rheumatoid arthritis. - an increased ratio of CD4+ T cells to T reg cells (CD4+/T reg ) with respect to a reference value is indicative of a clinical response to said therapy based on the administration of ASCs, wherein the reference value is obtained from the value of the ratio of CD4+ T cells to T reg cells (CD4+/T reg ) in a blood sample from one or more patients who do not respond to a therapy based on the administration of ASCs,
An apparatus, comprising: a plurality of blocks (BLK0-3) of memory cells (702-716, 722-736, 742-756, 762-776), the memory cells are arranged in strings (NS1, NS2, 700n, 710n, 720n and 730n), each string comprising a source end , a drain end , a channel extending between the source end and the drain end, and a select gate transistor at the source end; a voltage source which comprises a pass gate and which provides a select gate voltage; a voltage source (SLVS, 2130) which provides a source end voltage; and a control circuit , the control circuit configured to, in an erase operation for a selected block among the plurality of blocks, connect the select gate voltage to the select gate transistors and connect the source end voltage to the source ends to charge up the channel of each string of the selected block, wherein each select gate transistor has a positive channel-to-control gate voltage; characterised in that : a magnitude of the source end voltage minus the select gate voltage is based on an increasing function of a distance (d0, d1 and d2) of the selected block from the pass gate. a plurality of blocks (BLK0-3) of memory cells (702-716, 722-736, 742-756, 762-776), the memory cells are arranged in strings (NS1, NS2, 700n, 710n, 720n and 730n), each string comprising a source end , a drain end , a channel extending between the source end and the drain end, and a select gate transistor at the source end; a voltage source which comprises a pass gate and which provides a select gate voltage; a voltage source (SLVS, 2130) which provides a source end voltage; and a control circuit , the control circuit configured to, in an erase operation for a selected block among the plurality of blocks, connect the select gate voltage to the select gate transistors and connect the source end voltage to the source ends to charge up the channel of each string of the selected block, wherein each select gate transistor has a positive channel-to-control gate voltage; characterised in that : a magnitude of the source end voltage minus the select gate voltage is based on an increasing function of a distance (d0, d1 and d2) of the selected block from the pass gate.
A multivalent immunogenic composition, comprising: 13 distinct polysaccharide-protein conjugates, together with a physiologically acceptable vehicle, wherein each of the polysaccharide-protein conjugates comprises a capsular polysaccharide from a different serotype of Streptococcus pneumoniae conjugated to CRM 197 carrier protein, and wherein one of the capsular polysaccharides are prepared from serotype 22F or 33F; and the remaining capsular polysaccharides are prepared from 12 serotypes selected from the group consisting of 1, 3, 4, 5, 6A, 6B, 7F, 9V, 14, 18C, 19A, 19F and 23F. 13 distinct polysaccharide-protein conjugates, together with a physiologically acceptable vehicle, wherein each of the polysaccharide-protein conjugates comprises a capsular polysaccharide from a different serotype of Streptococcus pneumoniae conjugated to CRM 197 carrier protein, and wherein one of the capsular polysaccharides are prepared from serotype 22F or 33F; and the remaining capsular polysaccharides are prepared from 12 serotypes selected from the group consisting of 1, 3, 4, 5, 6A, 6B, 7F, 9V, 14, 18C, 19A, 19F and 23F. one of the capsular polysaccharides are prepared from serotype 22F or 33F; and the remaining capsular polysaccharides are prepared from 12 serotypes selected from the group consisting of 1, 3, 4, 5, 6A, 6B, 7F, 9V, 14, 18C, 19A, 19F and 23F.
Electrode arrangement for forming a dielectric barrier plasma discharge between an electrode , which is fed with a high AC voltage by a control device , and a surface to be treated of an electrically conductive body , wherein a dielectric completely covers the electrode towards the surface to be treated and forms a contact side for the surface , wherein the electrode consists of at least two partial electrodes arranged next to each other at the same distance from the contact side and insulated from each other by the dielectric , and wherein adjacent partial electrodes are fed by the control device with mutually compensating partial high AC voltages that are equal and opposite to each other with respect to waveform and voltage magnitude, characterized in that the electrically conductive body serves as a ground electrode and wherein the high AC voltages result in each case from a high-frequency oscillation process triggered by an excitation impulse.
Method of fabricating an optoelectronic device produced on the basis of GaN, comprising: ∘ an emission structure comprising an active zone adapted for emitting a first light at a first wavelength (λ 1 ), the method comprising the following steps: i. producing a growth structure comprising: ∘ a nucleation layer of In x2 Ga 1-x2 N at least partially relaxed, x2 being the atomic proportion of indium; ii. producing a conversion structure , by epitaxial growth starting from the growth structure , comprising: ∘ an emission layer , produced on the basis of InGaN starting from the nucleation layer , comprising an active zone adapted for emitting light at a second wavelength (λ 2 ) higher than the first wavelength (λ 1 ), and ∘ an absorption layer , produced on the basis of InGaN starting from the emission layer , adapted for absorbing the first light at least partially; iii. transfer of the conversion structure onto the emission structure in such a way that the absorption layer is located between the emission structure and the emission layer of the conversion structure . i. producing a growth structure comprising: ∘ a nucleation layer of In x2 Ga 1-x2 N at least partially relaxed, x2 being the atomic proportion of indium; ii. producing a conversion structure , by epitaxial growth starting from the growth structure , comprising: ∘ an emission layer , produced on the basis of InGaN starting from the nucleation layer , comprising an active zone adapted for emitting light at a second wavelength (λ 2 ) higher than the first wavelength (λ 1 ), and ∘ an absorption layer , produced on the basis of InGaN starting from the emission layer , adapted for absorbing the first light at least partially; ∘ an emission layer , produced on the basis of InGaN starting from the nucleation layer , comprising an active zone adapted for emitting light at a second wavelength (λ 2 ) higher than the first wavelength (λ 1 ), and ∘ an absorption layer , produced on the basis of InGaN starting from the emission layer , adapted for absorbing the first light at least partially; iii. transfer of the conversion structure onto the emission structure in such a way that the absorption layer is located between the emission structure and the emission layer of the conversion structure .
A self-driven carriage for automatically storing and accessing containers in a storage rack arrangement , wherein the carriage comprises a first wheel set for driving along a first axis (x) and a second wheel set for driving along a second axis (y) extending transverse to the first axis (x), wherein at least one of the first wheel set and the second wheel set is vertically movable between a driving position and an idle position, wherein the lower one of the first wheel set and the second wheel set is in the driving position and the upper one of the first wheel set and the second wheel set is in the idle position, wherein the carriage further comprises a support surface for carrying a bottom surface of a container , wherein the carriage further comprises a centring and securing system for centring and securing a container on the support surface , characterised in that the centring and securing system comprises at least two engaging elements being simultaneously movable in opposite directions to each other between an idle position and a securing position, wherein the engaging elements are configured to engage, in the securing position, with the container for securing the container on the support surface , wherein the first wheel set and/or the second wheel set are vertically movable by at least one lift motor , wherein the support surface is vertically movable, by the at least one lift motor , relative to the lower one of the first wheel set and the second wheel set .
A method for continuously preparing a cationic bitumen emulsion having a droplet size comprised between 0.2 μm and 10 μm, comprising the following steps: a) Introduction into a static mixer of a bituminous binder at a temperature comprised between 120°C and 180°C, of an aqueous phase, and of at least one cationic surfactant, in quantities such as the concentration of bituminous binder is greater than 80% by weight; then b) Mixing of the constituents in the static mixer or in a sequence of static mixers, under conditions such that ΔP ≤ 40 bar with ΔP = P(input 1st static mixer) - P(output last static mixer) to obtain a bitumen-in-water type emulsion having a droplet size comprised between 0.2 and 10 μm and a bituminous binder content greater than 80% by weight; c) Subsequently to step b), online dilution of the emulsion obtained following step b), by adding a pressurized flow of aqueous phase to the pipe comprising said emulsion to obtain a bitumen-in-water type emulsion having a droplet size comprised between 0.2 and 10 μm and a bituminous binder content comprised between 50 and 75% by weight d) Storage of the emulsion obtained following step c) . a) Introduction into a static mixer of a bituminous binder at a temperature comprised between 120°C and 180°C, of an aqueous phase, and of at least one cationic surfactant, in quantities such as the concentration of bituminous binder is greater than 80% by weight; then b) Mixing of the constituents in the static mixer or in a sequence of static mixers, under conditions such that ΔP ≤ 40 bar with ΔP = P(input 1st static mixer) - P(output last static mixer) to obtain a bitumen-in-water type emulsion having a droplet size comprised between 0.2 and 10 μm and a bituminous binder content greater than 80% by weight; c) Subsequently to step b), online dilution of the emulsion obtained following step b), by adding a pressurized flow of aqueous phase to the pipe comprising said emulsion to obtain a bitumen-in-water type emulsion having a droplet size comprised between 0.2 and 10 μm and a bituminous binder content comprised between 50 and 75% by weight d) Storage of the emulsion obtained following step c) .
A water-based dispersion which contains an inorganic powder microfine particle subjected to a hydrophobic organic surface treatment, a polyhydric alcohol, water, and a nonionic surfactant, wherein the nonionic surfactant is one or more compounds selected from the group consisting of a polyoxyalkylene fatty acid ester, a polyoxyalkylene sorbitan fatty acid ester, and an organopolysiloxane having a polyoxyalkylene group, the nonionic surfactant has an HLB value of 6 to 12, and wherein the nonionic surfactant is a compound which can be dissolved transparently or slightly muddy in 1,3-butylene glycol (20 wt% concentration, 35°C), and is insoluble or dispersed cloudy in water (20 wt% concentration, 35°C), and an amount of the inorganic powder microfine particle is 30 wt% or more, wherein dissolved transparently means that a haze value of the obtained mixture at an optical path length of 10 mm and 35°C is less than 10, and slightly muddy means that a haze value of the obtained mixture at an optical path length of 10 mm and 35°C is 10 or more, and the total light transmittance is 30% or more, and insoluble means that an unmelted residue is caused in the mixture, or a phase separation is occurred an hour later even if the mixture looks muddy, and dispersed cloudy means that a haze value of the obtained mixture at an optical path length of 10 mm and 35°C is 10 or more, and the total light transmittance is less than 30%.
A heat pump (P) for a household appliance (H), comprising a compressor , a condenser , a restrictor , and an evaporator , wherein the compressor is a rotary compressor , comprising - a cylindrical housing having a first longitudinal axis (L1), - a cylindrical roller having a second longitudinal axis (L2) and being accommodated in the housing such that the second longitudinal axis (L2) is aligned parallel and spaced apart from the first longitudinal axis (L1), - a rotatable motor shaft leading through the roller having a cam for rolling the roller along a side wall of the housing , and - a discharge port leading through a bottom cover , characterized in that: - a refrigerant (R) is used with the heat pump (P) which is a flammable refrigerant (R) having a charge of 150 g or less, - wherein R290 or R1270 is used as the refrigerant (R), - a height-to-radius ratio (hr/rr) of the roller is between 1.6 and 1.2, - a radius (rs) of the motor shaft is 8 mm or less, - a height (hc) of the cam is 14 mm or less, - an effective area (Q) of the discharge port is 17 mm 2 or more, and - a thickness (d) of the discharge port is 2.5 mm or less. - a cylindrical housing having a first longitudinal axis (L1), - a cylindrical roller having a second longitudinal axis (L2) and being accommodated in the housing such that the second longitudinal axis (L2) is aligned parallel and spaced apart from the first longitudinal axis (L1), - a rotatable motor shaft leading through the roller having a cam for rolling the roller along a side wall of the housing , and - a discharge port leading through a bottom cover , - a refrigerant (R) is used with the heat pump (P) which is a flammable refrigerant (R) having a charge of 150 g or less, - wherein R290 or R1270 is used as the refrigerant (R), - a height-to-radius ratio (hr/rr) of the roller is between 1.6 and 1.2, - a radius (rs) of the motor shaft is 8 mm or less, - a height (hc) of the cam is 14 mm or less, - an effective area (Q) of the discharge port is 17 mm 2 or more, and - a thickness (d) of the discharge port is 2.5 mm or less.
A process for the preparation of a product, the product being 6-methyl-3,4-di-hydro1,2,3-oxathiazin-4-one 2,2-dioxide or a salt thereof, the process comprising the following steps: a. Contacting SO 3 and acetoacetamide-N-sulphonic acid or a salt thereof in the presence of an amine, thereby obtaining a first stream comprising the amine and sulphuric acid; b. Providing a second stream comprising ammonia; c. Providing a circuit; d. Introducing the second stream into the circuit at point A and the first stream into the circuit at point B to obtain a cycle stream cycling in the circuit; e. Removing a portion of the cycle stream at a point C to obtain a third stream; wherein the circulation ratio is in the range from 3 to 30, the circulation ratio being the value of the mass flow rate of the cycle stream immediately preceding point A F c divided by the value of the mass flow rate of the first stream into the circuit at point B F 1 according to the following formula: circulation ratio = F c / F 1 a. Contacting SO 3 and acetoacetamide-N-sulphonic acid or a salt thereof in the presence of an amine, thereby obtaining a first stream comprising the amine and sulphuric acid; b. Providing a second stream comprising ammonia; c. Providing a circuit; d. Introducing the second stream into the circuit at point A and the first stream into the circuit at point B to obtain a cycle stream cycling in the circuit; e. Removing a portion of the cycle stream at a point C to obtain a third stream;
An imaging optical system comprising a prism and a multilayer-type diffractive optical element ; wherein the prism has a non-rotationally-symmetric aspheric surface for correcting eccentric aberration; and the diffractive optical element includes a kinoform-type diffractive optical surface (DM) having a lattice structure that is asymmetric about an optical axis (Ax) of the optical system , which consists of curved diffractive surfaces and edge surfaces connecting the curved surfaces; wherein the following condition is satisfied where ΔNe represents the refractive index difference of the diffractive optical surface (DM) in relation to the e-line (546.074 nm) : 0.53 > Δ Ne > 0.005 wherein the diffractive optical element has a positive refractive power; and wherein: i) in a configuration in which light that has passed through the optical system is to be incident on a stop for adjusting the light amount, the diffractive optical element has a higher refractive index at a portion nearer the stop, and the diffractive optical element has a lower refractive index at a portion further from the stop or ii) in a configuration in which light that is to be incident on the optical system has passed through a stop for adjusting the light amount, the diffractive optical element has a higher refractive index at a portion nearer the stop, and the diffractive optical element has a lower refractive index at a portion further from the stop. i) in a configuration in which light that has passed through the optical system is to be incident on a stop for adjusting the light amount, the diffractive optical element has a higher refractive index at a portion nearer the stop, and the diffractive optical element has a lower refractive index at a portion further from the stop or ii) in a configuration in which light that is to be incident on the optical system has passed through a stop for adjusting the light amount, the diffractive optical element has a higher refractive index at a portion nearer the stop, and the diffractive optical element has a lower refractive index at a portion further from the stop.
A camouflaged application specific integrated circuit (ASIC), comprising: core logic having a first plurality of interconnected functional logic cells; a programmable micro netlist (PMNL) comprising: a second plurality of interconnected functional logic cells that together comprise a logical input and a programming input, the PMNL performing a PMNL function, the programming input communicatively coupleable to a non-volatile memory to receive configuration programming data from the non-volatile memory to configure the PMNL to perform the PMNL function; wherein at least one of the first plurality of functional logic cells and the second plurality of functional logic cells comprise: an uncamouflaged functional logic cell performing a first functional logic cell function and having a first physical layout; and a camouflaged functional logic cell performing a second functional logic cell function and having a second physical layout substantially indistinguishable from the first physical layout; wherein the combined first plurality of interconnected functional logic cells, the PMNL, and the configuration programming data perform one or more ASIC logical functions. core logic having a first plurality of interconnected functional logic cells; a programmable micro netlist (PMNL) comprising: a second plurality of interconnected functional logic cells that together comprise a logical input and a programming input, the PMNL performing a PMNL function, the programming input communicatively coupleable to a non-volatile memory to receive configuration programming data from the non-volatile memory to configure the PMNL to perform the PMNL function; wherein at least one of the first plurality of functional logic cells and the second plurality of functional logic cells comprise: an uncamouflaged functional logic cell performing a first functional logic cell function and having a first physical layout; and a camouflaged functional logic cell performing a second functional logic cell function and having a second physical layout substantially indistinguishable from the first physical layout; an uncamouflaged functional logic cell performing a first functional logic cell function and having a first physical layout; and a camouflaged functional logic cell performing a second functional logic cell function and having a second physical layout substantially indistinguishable from the first physical layout; wherein the combined first plurality of interconnected functional logic cells, the PMNL, and the configuration programming data perform one or more ASIC logical functions.
An ALD silicon and oxygen containing film formation process, the process comprising the steps of: Depositing a silicon and oxygen containing film on a substrate by sequentially introducing a vapor of a mono-substituted TSA precursor and an oxygen-containing reactant into a reactor containing the substrate, the mono-substituted TSA precursor having a formula (SiH 3 ) 2 N-SiH 2 -X, characterized in that X is an amino group [-NR 2 ] and each R is independently selected from the group consisting of H; a C 1 -C 6 hydrocarbyl group.