mhurhangee/patent-ind-claim-en huggingface dataset:
A cartilage regenerative material comprising: a cell construct that includes biocompatible polymer blocks and stem cells, the cell construct having a plurality of the biocompatible polymer blocks disposed in gaps between a plurality of the stem cells; and a biocompatible polymer film. a cell construct that includes biocompatible polymer blocks and stem cells, the cell construct having a plurality of the biocompatible polymer blocks disposed in gaps between a plurality of the stem cells; and a biocompatible polymer film.
A wheel bearing unit having at least one outer ring and at least two inner rings , between which rolling elements guided in a cage are arranged, wherein two adjacent inner rings bear against each other by their mutually facing axial end faces , and wherein a sealing device is provided to seal an interface of the two inner rings , wherein the sealing device is formed by an annular retaining element , and wherein at least one sealing element is provided on the retaining element , the sealing element being in the form of a sealing ring which has at least two contact points which are in contact with the retaining element and at least one contact point which is in contact with one inner ring in each case, wherein at least one of the contact points is designed such that it has a flat face (X), wherein the retaining element is U-shaped and has two side rings , which are connected by means of a circumferential land , wherein at least one of the side rings has at least one recess , characterised in that the retaining element is made of a plastic material.
An electronic device , comprising: a sensor that is configured to acquire a pulse wave of a subject; and a controller that is configured to estimate the blood glucose level of the subject on the basis of an estimation expression created on the basis of a blood glucose level and a pulse wave corresponding to the blood glucose level, and the pulse wave of the subject acquired by the sensor , wherein the controller is configured to estimate the blood glucose level of the subject after eating on the basis of an inputted or transmitted blood glucose level of the subject before eating, measured using a blood glucose meter and inputted via an input interface of the electronic device or transmitted by the blood glucose meter via a communication interface of the electronic device , wherein the device is configured to measure the pulse wave before eating, to measure the pulse wave after eating, to analyse the pulse waves before eating and after eating, and to estimate blood glucose level after eating using the estimation expression and applying thereto the inputted or transmitted blood glucose level before eating, the result of analyzing pulse waves before eating and after eating, and an inputted age of the subject. a sensor that is configured to acquire a pulse wave of a subject; and a controller that is configured to estimate the blood glucose level of the subject on the basis of an estimation expression created on the basis of a blood glucose level and a pulse wave corresponding to the blood glucose level, and the pulse wave of the subject acquired by the sensor , wherein the controller is configured to estimate the blood glucose level of the subject after eating on the basis of an inputted or transmitted blood glucose level of the subject before eating, measured using a blood glucose meter and inputted via an input interface of the electronic device or transmitted by the blood glucose meter via a communication interface of the electronic device , wherein the device is configured to measure the pulse wave before eating, to measure the pulse wave after eating, to analyse the pulse waves before eating and after eating, and to estimate blood glucose level after eating using the estimation expression and applying thereto the inputted or transmitted blood glucose level before eating, the result of analyzing pulse waves before eating and after eating, and an inputted age of the subject.
A caster module , comprising: an omni wheel , provided with an shaft groove ; and an effector , received in the shaft groove , a case of the effector being rotatable relative to an inner wall of the shaft groove , and an output end of the effector being connected to the omni wheel and configured to drive the omni wheel to rotate, characterized in that , the omni wheel comprises an inner-side hub , an omni wheel primary structure , an outer-side hub , an inner-side roller , and an outer-side roller ; wherein the shaft groove is disposed on the omni wheel primary structure , the inner-side hub and the outer-side hub are both connected to the omni wheel primary structure , the inner-side hub and the outer-side hub are respectively disposed at two ends of the shaft groove , the inner-side hub and the omni wheel primary structure collaboratively define an inner rotation groove , the inner-side roller being rotatably connected to the inner rotation groove , and the outer-side hub and the omni wheel primary structure collaboratively define an outer rotation groove , the outer-side roller being rotatably being connected to the outer rotation groove ; and the inner-side hub is provided with a connecting through hole in communication with the shaft groove , the effector is inserted into the shaft groove by the connecting through hole , and the output end of the effector is connected to a surface of the outer-side hub facing towards the shaft groove . an omni wheel , provided with an shaft groove ; and an effector , received in the shaft groove , a case of the effector being rotatable relative to an inner wall of the shaft groove , and an output end of the effector being connected to the omni wheel and configured to drive the omni wheel to rotate, characterized in that , the omni wheel comprises an inner-side hub , an omni wheel primary structure , an outer-side hub , an inner-side roller , and an outer-side roller ; wherein the shaft groove is disposed on the omni wheel primary structure , the inner-side hub and the outer-side hub are both connected to the omni wheel primary structure , the inner-side hub and the outer-side hub are respectively disposed at two ends of the shaft groove , the inner-side hub and the omni wheel primary structure collaboratively define an inner rotation groove , the inner-side roller being rotatably connected to the inner rotation groove , and the outer-side hub and the omni wheel primary structure collaboratively define an outer rotation groove , the outer-side roller being rotatably being connected to the outer rotation groove ; and the inner-side hub is provided with a connecting through hole in communication with the shaft groove , the effector is inserted into the shaft groove by the connecting through hole , and the output end of the effector is connected to a surface of the outer-side hub facing towards the shaft groove .
A method of positioning a part with a conveyor , characterized in that the method comprises the step of: manually loading a part onto a conveyor locating element in an unoriented position; dragging the part with a conveyor member along a conveyor friction bar to an oriented position, wherein the conveyor member is a sprocket-driven continuous chain , and a support bar is arranged beneath the chain adjacent to the sprocket ; positioning the conveyor locating element with the support bar as the locating element approaches an end of the conveyor ; and picking up the part robotically from the oriented position at the end of the conveyor . manually loading a part onto a conveyor locating element in an unoriented position; dragging the part with a conveyor member along a conveyor friction bar to an oriented position, wherein the conveyor member is a sprocket-driven continuous chain , and a support bar is arranged beneath the chain adjacent to the sprocket ; positioning the conveyor locating element with the support bar as the locating element approaches an end of the conveyor ; and picking up the part robotically from the oriented position at the end of the conveyor .
An image processing device comprising: an image acquisition means configured to acquire a target image (TP) being an image to be processed; an extraction means configured to extract a plurality of partial regions (PA1 - PA5, PA51, PA52) from the target image (TP) by clustering based on specified color similarity of pixel values; a generation means configured to generate a plurality of composite images (CP1 - CP15) each composed of one or more partial regions (PA1 - PA5, PA51, PA52) out of the plurality of partial regions (PA1 - PA5, PA51, PA52), wherein the generation means is configured to generate the plurality of composite images (CP1 - CP15) based on all combinations using all of the plurality of partial regions (PA1 - PA5, PA51, PA52); a calculation means configured to calculate, for each of the composite images (CP1 - CP15), a score indicating a likelihood that a shape formed by the partial region (PA1 - PA5, PA51, PA52) constituting the composite image (CP1 - CP15) is a shape of an object to be extracted; and an output means configured to output processing target region information specifying a composite image (CP1 - CP15) with the highest score as an object region (FA) where the object is shown in the target image (TP). an image acquisition means configured to acquire a target image (TP) being an image to be processed; an extraction means configured to extract a plurality of partial regions (PA1 - PA5, PA51, PA52) from the target image (TP) by clustering based on specified color similarity of pixel values; a generation means configured to generate a plurality of composite images (CP1 - CP15) each composed of one or more partial regions (PA1 - PA5, PA51, PA52) out of the plurality of partial regions (PA1 - PA5, PA51, PA52), wherein the generation means is configured to generate the plurality of composite images (CP1 - CP15) based on all combinations using all of the plurality of partial regions (PA1 - PA5, PA51, PA52); a calculation means configured to calculate, for each of the composite images (CP1 - CP15), a score indicating a likelihood that a shape formed by the partial region (PA1 - PA5, PA51, PA52) constituting the composite image (CP1 - CP15) is a shape of an object to be extracted; and an output means configured to output processing target region information specifying a composite image (CP1 - CP15) with the highest score as an object region (FA) where the object is shown in the target image (TP).
Machine for treating objects, in particular for washing, thermal disinfection and/or sterilization of objects, comprising a treatment chamber provided with an access aperture defining a corresponding lying plane (P); a rotatable door configured to rotate with respect to a corresponding hinging axis (A) in order to open and close said access aperture ; and fluidic sealing means positioned between said access aperture and said rotatable door ; wherein said rotatable door is associated with said access aperture by a hinging device provided with a movement unit to move the hinging axis (A) of the rotatable door with respect to said lying plane (P), so that said hinging axis (A) can be distanced from said lying plane (P) following an opening rotation (R1) of the rotatable door and can move closer to said lying plane (P) following a closing rotation (R2) of said rotatable door , wherein the machine comprises at least one adjustment device configured to adjust the position of said movement unit with respect to said lying plane (P) and said fluidic sealing means , wherein said movement unit comprises at least a first pair of gears associated with said rotatable door and able to engage with a second pair of gears associated with a wall of the treatment chamber ; said treatment machine being characterized in that said movement unit is an actuator to convert the rotary motion of the rotatable door into a two-directional linear translation motion of said hinging axis (A), following the rotation of the rotatable door , so that the hinging axis (A) is at a minimum distance (DC) from said lying plane (P) when said rotatable door is closed, and at a maximum distance (DA) from said lying plane (P) when said rotatable door is completely open and in that said adjustment device comprises attachment elements inserted into suitable slits made on said second pair of gears associated with a wall of the treatment chamber .
Cabin of an aircraft comprising a plurality of seats and at least one main calculator , wherein at least one seat of said plurality of seats is paired with a passenger terminal , said seat and said paired passenger terminal communicating with each other wirelessly in order to transmit digital data concerning the capacities for adjusting said seat from a management unit from said seat to the passenger terminal and in order to transmit digital data concerning instructions for adjusting said seat from the passenger terminal to the management unit of the seat, with the passenger terminal comprising a screen and an application software that interprets the data received from the management unit of the seat in order to display on a screen of the passenger terminal a representation of the possible adjustments for said seat and interpreting actions of an operator on buttons of the passenger terminal as instructions for adjusting the seat, and characterised in that at least one seat of the plurality of seats is identified in the cabin by a unique identifier comprising a graphic code affixed on the seat and decoded by the passenger terminal , and in that the main calculator is configured to build a table of passengers who are effectively on board from the personal data of a passenger, identified as a holder of a passenger terminal , said personal data being transmitted to the main calculator by each passenger terminal paired to a seat in the cabin.
A galvanic cell oxygen sensor comprising: a holder ; and a positive electrode , a negative electrode , and an electrolyte solution that are placed in the holder , a correction resistance and a thermistor for temperature compensation that are connected in series to the positive electrode and the negative electrode , characterized in that the negative electrode contains a Pb-Sb alloy, and the Sb content in the Pb-Sb alloy is 0.5 wt % or more and 11.1 wt % or less. a holder ; and a positive electrode , a negative electrode , and an electrolyte solution that are placed in the holder , a correction resistance and a thermistor for temperature compensation that are connected in series to the positive electrode and the negative electrode , characterized in that the negative electrode contains a Pb-Sb alloy, and the Sb content in the Pb-Sb alloy is 0.5 wt % or more and 11.1 wt % or less.
Method for determining the orientation of a part to be additively manufactured, wherein the method comprises the following steps of: - a) providing a part geometry for the part to be additively manufactured, wherein the part is a component of a turbine, - b) defining a property of the part to be additively manufactured, wherein the property is a material- and geometry-dependent property, wherein the property is furthermore a creep strength of the part to be additively manufactured - c) analysing a direction dependence of the property depending on the part geometry, wherein the direction dependence of the property is analysed on the basis of a structural analysis of additively manufactured material, wherein the crystal structure and/or the material phases of the part are analysed, and - d) determining a preferred orientation , in an additive manufacturing plant , of the part to be additively manufactured, on the basis of the analysis of the direction dependence. - a) providing a part geometry for the part to be additively manufactured, wherein the part is a component of a turbine, - b) defining a property of the part to be additively manufactured, wherein the property is a material- and geometry-dependent property, wherein the property is furthermore a creep strength of the part to be additively manufactured - c) analysing a direction dependence of the property depending on the part geometry, wherein the direction dependence of the property is analysed on the basis of a structural analysis of additively manufactured material, wherein the crystal structure and/or the material phases of the part are analysed, and - d) determining a preferred orientation , in an additive manufacturing plant , of the part to be additively manufactured, on the basis of the analysis of the direction dependence.
A method for producing an artificial turf fiber from plastic waste , the method comprising: - providing an unaged polymer ; - providing plastic waste comprising one or more aged polymers, the one or more aged polymers comprising at least one aged polymer that is immiscible with the unaged polymer; - melting and mixing the plastic waste and the unaged polymer for preparing a liquid core polymer mixture , the liquid core polymer mixture comprising a core polymer phase and a thread polymer phase , the thread polymer phase forming beads within the core polymer phase, the thread polymer phase comprising the at least one aged polymer that is immiscible with the unaged polymer, the core polymer phase comprising the unaged polymer or comprising a blend of the unaged polymer and one or more further ones of the aged polymers that are miscible with the unaged polymer; - coextruding the liquid core polymer mixture with a liquid cladding polymer into a monofilament , the liquid core polymer mixture forming a cylindrical core , the liquid cladding polymer forming a cladding encompassing the core; and - providing one or more of the monofilaments as the artificial turf fiber . - providing an unaged polymer ; - providing plastic waste comprising one or more aged polymers, the one or more aged polymers comprising at least one aged polymer that is immiscible with the unaged polymer; - melting and mixing the plastic waste and the unaged polymer for preparing a liquid core polymer mixture , the liquid core polymer mixture comprising a core polymer phase and a thread polymer phase , the thread polymer phase forming beads within the core polymer phase, the thread polymer phase comprising the at least one aged polymer that is immiscible with the unaged polymer, the core polymer phase comprising the unaged polymer or comprising a blend of the unaged polymer and one or more further ones of the aged polymers that are miscible with the unaged polymer; - coextruding the liquid core polymer mixture with a liquid cladding polymer into a monofilament , the liquid core polymer mixture forming a cylindrical core , the liquid cladding polymer forming a cladding encompassing the core; and - providing one or more of the monofilaments as the artificial turf fiber .
A pneumatic tire comprising a noise damper made of a porous material and fixed to a tire inner cavity surface , characterized in that , in the noise damper , a ratio H1/H2 of a first hardness H1 measured in accordance with Method D of Japanese Industrial Standard JIS K6400-2 in an atmosphere of 23 degrees Celsius and a second hardness H2 measured in accordance with Method D of Japanese Industrial Standard JIS K6400-2 in an atmosphere of 50 degrees Celsius is 2.0 or less.
A flow cytometric sample fluidic subsystem comprising: a sealed pressure chamber , comprising an inlet operably coupled to a pressurized gas source, a magnetic separation device ; and a pliant sample container made from a flexible material that has a Young's modulus of 1 GPa or less, the pliant sample container comprising a conduit , wherein the pliant sample container and the magnetic separation device are present inside of the sealed pressure chamber such that an elevated pressure may be maintained in the sealed pressure chamber that is sufficient to squeeze fluid out of the pliant container and the conduit of the pliant sample container is operatively coupled to the magnetic separation device and is configured to direct a flow of fluid through the magnetic separation device , and wherein the magnetic separation device is configured to apply a magnetic field to the conduit so that a magnetic label is separated from a fluid in the conduit when operatively coupled to the magnetic separation device . a sealed pressure chamber , comprising an inlet operably coupled to a pressurized gas source, a magnetic separation device ; and a pliant sample container made from a flexible material that has a Young's modulus of 1 GPa or less, the pliant sample container comprising a conduit , wherein the pliant sample container and the magnetic separation device are present inside of the sealed pressure chamber such that an elevated pressure may be maintained in the sealed pressure chamber that is sufficient to squeeze fluid out of the pliant container and the conduit of the pliant sample container is operatively coupled to the magnetic separation device and is configured to direct a flow of fluid through the magnetic separation device , and wherein the magnetic separation device is configured to apply a magnetic field to the conduit so that a magnetic label is separated from a fluid in the conduit when operatively coupled to the magnetic separation device .
Device (2.1) comprising communication means for communicating within a physical communication network with a set of apparatuses, characterised in that it comprises: - means (2.6) for local self-diagnostics; - means (2.2) for managing a virtual hierarchical communication network with the set of apparatuses within the physical communication network; - means (2.5) for determining a diagnostic status relating to the result of the local self-diagnostic means and of the self-diagnostic means of the apparatuses that are dependent on said device in said virtual hierarchical communication network. - means (2.6) for local self-diagnostics; - means (2.2) for managing a virtual hierarchical communication network with the set of apparatuses within the physical communication network; - means (2.5) for determining a diagnostic status relating to the result of the local self-diagnostic means and of the self-diagnostic means of the apparatuses that are dependent on said device in said virtual hierarchical communication network.
Porous aggregate, comprising from 70 to 95 wt.-% Al 2 O 3 , from 3 to 10 wt.-% SiO 2 and optionally up to 5 wt.-% Fe 2 O 3 , having a d 50 of equivalent pore diameter between 1 μm or more and 50 μm or below and a total porosity between 20% and 60%, and optionally having a d 10 equivalent pore diameter of 30 μm or below, wherein the porous aggregate has an open porosity of 20% or less, wherein the porous aggregate is additionally coated with a hydrophobic polymer, such as a polymer selected from the group of thermosetting binding agents, thermo-hardening binding agents and multi-component reacting binding agents, and wherein optionally said polymer is a petroleum by-product, such as a hydrocarbon containing from 20 to 40 carbon atoms per molecule. the porous aggregate has an open porosity of 20% or less, wherein the porous aggregate is additionally coated with a hydrophobic polymer, such as a polymer selected from the group of thermosetting binding agents, thermo-hardening binding agents and multi-component reacting binding agents, and wherein optionally said polymer is a petroleum by-product, such as a hydrocarbon containing from 20 to 40 carbon atoms per molecule.