mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal interface material comprising: at least one polymer; at least one phase change material a first thermally conductive filler having a first particle size of from 1 to 25 microns; and a second thermally conductive filler having a second particle size of from 0.1 to 3 microns; wherein the first particle size is larger than the second particle size, and wherein the total amount of thermally conductive filler is from 90 wt.% to 99 wt.% based on the total weight of the thermal interface material. at least one polymer; at least one phase change material a first thermally conductive filler having a first particle size of from 1 to 25 microns; and a second thermally conductive filler having a second particle size of from 0.1 to 3 microns; wherein the first particle size is larger than the second particle size, and wherein the total amount of thermally conductive filler is from 90 wt.% to 99 wt.% based on the total weight of the thermal interface material.
Method for producing an electrical device having an electrical or electronic component , the component being at least partly enveloped by an envelope material comprising cement, with steps as follows: - applying the envelope material to the electrical or electronic component ; and - treating the envelope material in such a way that the cement is specifically carbonated at a surface of the envelope material , characterized in that the step of treating the envelope material for the specific carbonation of the cement at the surface comprises steps as follows: - first heat-treating of the envelope material ; - formation of a moisture film at the surface of the envelope material ; and - second heat-treating of the envelope material under a defined atmosphere having a carbon dioxide content of greater than or equal to 0.039 vol% or carbon dioxide partial pressure of greater than 0.039 kPa or equal to 0.039 kPa to less than 0.01 KPa. - applying the envelope material to the electrical or electronic component ; and - treating the envelope material in such a way that the cement is specifically carbonated at a surface of the envelope material , - first heat-treating of the envelope material ; - formation of a moisture film at the surface of the envelope material ; and - second heat-treating of the envelope material under a defined atmosphere having a carbon dioxide content of greater than or equal to 0.039 vol% or carbon dioxide partial pressure of greater than 0.039 kPa or equal to 0.039 kPa to less than 0.01 KPa.
A method for preparing a tobacco-derived nanocellulose material, the method comprising: receiving a tobacco pulp derived from tobacco root in a dilute form such that the tobacco pulp is a tobacco pulp suspension with a consistency from about 1% to about 5%; and mechanically fibrillating the tobacco pulp suspension to generate a tobacco derived nanocellulose material in the form of particles having at least one average particle size dimension in the range of about 1 nm to about 100 nm, wherein mechanically fibrillating comprises passing the tobacco pulp suspension through a high-pressure homogenizer or high-pressure microfluidizer at an elevated pressure of at least 100 bar to generate a tobacco derived nanocellulose material; wherein, prior to or following the receiving, the tobacco pulp is subjected to depithing, Kraft cooking, chemical bleaching, and grinding. receiving a tobacco pulp derived from tobacco root in a dilute form such that the tobacco pulp is a tobacco pulp suspension with a consistency from about 1% to about 5%; and mechanically fibrillating the tobacco pulp suspension to generate a tobacco derived nanocellulose material in the form of particles having at least one average particle size dimension in the range of about 1 nm to about 100 nm, wherein mechanically fibrillating comprises passing the tobacco pulp suspension through a high-pressure homogenizer or high-pressure microfluidizer at an elevated pressure of at least 100 bar to generate a tobacco derived nanocellulose material; wherein, prior to or following the receiving, the tobacco pulp is subjected to depithing, Kraft cooking, chemical bleaching, and grinding.
An in vitro non-invasive prognostic method for assessing the risk of death and/or of liver-related event in a subject, comprising: a. obtaining at least three variables selected from age, sex, weight, alpha-2 macroglobulin (A2M), hyaluronic acid (HA), prothrombin index (PI), platelets (PLT), aspartate aminotransferase (AST), urea, gamma-glutamyl transpeptidase (GGT), alanine aminotransferase (ALT), ferritin (Fer), and glucose (Glu); b. obtaining at least one blood test result by multivariate combination, with a binary logistic regression, of the at least three variables obtained in step (a), said blood test being a FibroMeter; c. obtaining at least one elastometry data from medical imaging or clinical measurement; and d. mathematically combining in a multivariate time-related model: - said at least three variables obtained in step (a) and/or said at least one blood test result obtained in step (b); and - said at least one elastometry data obtained in step (c); thereby obtaining a prognostic score. a. obtaining at least three variables selected from age, sex, weight, alpha-2 macroglobulin (A2M), hyaluronic acid (HA), prothrombin index (PI), platelets (PLT), aspartate aminotransferase (AST), urea, gamma-glutamyl transpeptidase (GGT), alanine aminotransferase (ALT), ferritin (Fer), and glucose (Glu); b. obtaining at least one blood test result by multivariate combination, with a binary logistic regression, of the at least three variables obtained in step (a), said blood test being a FibroMeter; c. obtaining at least one elastometry data from medical imaging or clinical measurement; and d. mathematically combining in a multivariate time-related model: - said at least three variables obtained in step (a) and/or said at least one blood test result obtained in step (b); and - said at least one elastometry data obtained in step (c); - said at least three variables obtained in step (a) and/or said at least one blood test result obtained in step (b); and - said at least one elastometry data obtained in step (c);
An electromagnetic shielding structure successively comprising: - an electrically insulating layer of a first polymeric material, - an electrically conductive shielding film comprising at least 90 mass % of metal nanowires, - a protective layer of a second polymeric material, characterized in that the shielding film consists of metal nanowires, and, optionally, carbon nanotubes and/or graphene. - an electrically insulating layer of a first polymeric material, - an electrically conductive shielding film comprising at least 90 mass % of metal nanowires, - a protective layer of a second polymeric material, characterized in that the shielding film consists of metal nanowires, and, optionally, carbon nanotubes and/or graphene.
A method of hanging-off a flexible elongate subsea element from a surface vessel, the method comprising: placing a hang-off insert onto a hang-off structure of the surface vessel, the hang-off insert comprising a substantially circular loop whose inner radius is defined by radially inner faces of support segments spaced circumferentially around the loop; and with the hang-off insert supported by the hang-off structure and the elongate subsea element extending through the loop, resting a laterally-protruding hang-off feature of the elongate subsea element on a substantially planar support face defined collectively by the support segments to transfer weight of the elongate subsea element suspended from the surface vessel to the hang-off structure , wherein the hang-off insert is flexible and the method comprises bending the flexible hang-off insert around the elongate subsea element to form the loop. placing a hang-off insert onto a hang-off structure of the surface vessel, the hang-off insert comprising a substantially circular loop whose inner radius is defined by radially inner faces of support segments spaced circumferentially around the loop; and with the hang-off insert supported by the hang-off structure and the elongate subsea element extending through the loop, resting a laterally-protruding hang-off feature of the elongate subsea element on a substantially planar support face defined collectively by the support segments to transfer weight of the elongate subsea element suspended from the surface vessel to the hang-off structure ,
A method performed by an end-to-end machine-learning controller in a wireless communications network, the method comprising: obtaining , by the end-to-end machine-learning controller , machine-learning capabilities of at least two devices involved in an end-to-end communication; determining , based on the machine-learning capabilities of the at least two devices , an end-to-end machine-learning configuration to process information exchanged through the end-to-end communication; and directing the at least two devices to process the information exchanged through the end-to-end communication by forming a deep neural network based on the end-to-end machine-learning configuration. obtaining , by the end-to-end machine-learning controller , machine-learning capabilities of at least two devices involved in an end-to-end communication; determining , based on the machine-learning capabilities of the at least two devices , an end-to-end machine-learning configuration to process information exchanged through the end-to-end communication; and directing the at least two devices to process the information exchanged through the end-to-end communication by forming a deep neural network based on the end-to-end machine-learning configuration.
Refrigeration device, in particular a domestic refrigeration device, comprising: a housing surrounding at least one inner chamber, comprising a roof and a rear wall ; a ventilator , which is arranged in the inner chamber; a support to which the ventilator is attached, and a ventilator cover, which divides off a chamber extending on the rear wall or below the roof ; wherein the support is embodied as a component separate from the ventilator cover and is connected to the ventilator cover; characterised in that , the support is mounted on an edge formed by the roof and the rear wall ; and the support has a ventilator compartment into which the ventilator is able to be installed in two different orientations, so that the ventilator runs in different directions depending on its installation. a housing surrounding at least one inner chamber, comprising a roof and a rear wall ; a ventilator , which is arranged in the inner chamber; a support to which the ventilator is attached, and a ventilator cover, which divides off a chamber extending on the rear wall or below the roof ; wherein the support is embodied as a component separate from the ventilator cover and is connected to the ventilator cover; characterised in that , the support is mounted on an edge formed by the roof and the rear wall ; and the support has a ventilator compartment into which the ventilator is able to be installed in two different orientations, so that the ventilator runs in different directions depending on its installation.
A method for continuous recognition of gestures of a user of a handheld mobile device provided with a motion sensor assembly provided with a gyrometer, the method comprising steps consisting of, for at least one gyrometer measuring signal over a time window: - detecting a candidate gesture; and - comparing said candidate gesture with a set of predetermined gestures; said candidate gesture detection step including substeps consisting of: - calculating a first value of a norm of an integral of the gyrometer signal on said gesture as a parameter indicative of the symmetry of the gesture with respect to at least one axis; - calculating a second value of a parameter indicative of the energy of the gesture along at least one axis, and - comparing if said first value is less than or equal to a first threshold (T sym ) and if said second value is greater than or equal to a second threshold (T nrg ), in which case, detecting the candidate gesture and comparing it to the set of predetermined gestures. - detecting a candidate gesture; and - comparing said candidate gesture with a set of predetermined gestures; - calculating a first value of a norm of an integral of the gyrometer signal on said gesture as a parameter indicative of the symmetry of the gesture with respect to at least one axis; - calculating a second value of a parameter indicative of the energy of the gesture along at least one axis, and - comparing if said first value is less than or equal to a first threshold (T sym ) and if said second value is greater than or equal to a second threshold (T nrg ), in which case, detecting the candidate gesture and comparing it to the set of predetermined gestures.
A method for secure wireless lock-actuation exchange, the method comprising: receiving a request to actuate a lock from a device ; calculating a challenge count that is a random number and variable between requests to actuate the lock; performing verification iterations until an end condition is met, a verification iteration comprising: creating a vehicle signature from a freshness value and a portion of the request, the freshness value changing between verification iterations; transmitting the vehicle signature to the device ; computing a local-remote vehicle signature from the vehicle signature; incrementing a counter to track a number of the verification iterations performed; receiving a verification signature transmitted from the device ; and comparing the local-remote vehicle signature to the verification signature transmitted from the device , the verification signature derived from the vehicle signature, wherein the end condition is at least one of the number of the verification iterations performed reaching the challenge count or the comparing determining that the local-remote vehicle signature does not match the verification signature; and actuating the lock in response to the counter being equal to or greater than the challenge count. receiving a request to actuate a lock from a device ; calculating a challenge count that is a random number and variable between requests to actuate the lock; performing verification iterations until an end condition is met, a verification iteration comprising: creating a vehicle signature from a freshness value and a portion of the request, the freshness value changing between verification iterations; transmitting the vehicle signature to the device ; computing a local-remote vehicle signature from the vehicle signature; incrementing a counter to track a number of the verification iterations performed; receiving a verification signature transmitted from the device ; and comparing the local-remote vehicle signature to the verification signature transmitted from the device , the verification signature derived from the vehicle signature, wherein the end condition is at least one of the number of the verification iterations performed reaching the challenge count or the comparing determining that the local-remote vehicle signature does not match the verification signature; and actuating the lock in response to the counter being equal to or greater than the challenge count. computing a local-remote vehicle signature from the vehicle signature; incrementing a counter to track a number of the verification iterations performed; receiving a verification signature transmitted from the device ; and comparing the local-remote vehicle signature to the verification signature transmitted from the device , the verification signature derived from the vehicle signature, wherein the end condition is at least one of the number of the verification iterations performed reaching the challenge count or the comparing determining that the local-remote vehicle signature does not match the verification signature; and actuating the lock in response to the counter being equal to or greater than the challenge count.
A rectal-use composition by enema for use in the treatment of constipation, characterized in that it comprises a water solution comprising (a) 20 to 80% by weight of a first polyethylene glycol having a mean molecular weight ranging from 2000 to 6000 Dalton and (b) a second polyethylene glycol having a mean molecular weight ranging from 200 to 600 Dalton; said first polyethylene glycol being in a quantity ranging from two to six times by weight the quantity of said second polyethylene glycol; said second polyethylene glycol being present in said water solution in a quantity ranging from 5 to 15% by weight.
A powered toothbrush (100; 200; 400) comprising: a handle ; a power source ; a head including a cavity (202; 402) and disposed at a distal end of the handle ; a plurality of electrically conducting elements (208; 408) disposed in the cavity (202; 402) and electrically connected to the power source , wherein application of an electrical current from the power source to the plurality of electrically conducting elements (208; 308; 408) generates a magnetic field; a movable cleaning element connected to the head and movable relative to the cavity (202; 402), wherein the movable cleaning element and the cavity (202; 402) define a volume, the movable cleaning element comprising a bristle support member disposed at least partially over the cavity (202; 402), a plurality of bristles extending from the bristle support member in a direction away from the cavity (202; 402), and a ferromagnetic member (218; 410); and a channel fluidly connecting the volume with an exterior of the head ; wherein the magnetic field selectively at least one of attracts and repels the ferromagnetic member (218; 410) to move the movable cleaning element relative to the plurality of electrically conducting elements (208; 408); and wherein the movable cleaning element is configured so that a movement of the movable cleaning element varies the volume, and varying the volume may cause selective ingress and egress of material into and out of the volume through the channel. a handle ; a power source ; a head including a cavity (202; 402) and disposed at a distal end of the handle ; a plurality of electrically conducting elements (208; 408) disposed in the cavity (202; 402) and electrically connected to the power source , wherein application of an electrical current from the power source to the plurality of electrically conducting elements (208; 308; 408) generates a magnetic field; a movable cleaning element connected to the head and movable relative to the cavity (202; 402), wherein the movable cleaning element and the cavity (202; 402) define a volume, the movable cleaning element comprising a bristle support member disposed at least partially over the cavity (202; 402), a plurality of bristles extending from the bristle support member in a direction away from the cavity (202; 402), and a ferromagnetic member (218; 410); and a channel fluidly connecting the volume with an exterior of the head ; wherein the magnetic field selectively at least one of attracts and repels the ferromagnetic member (218; 410) to move the movable cleaning element relative to the plurality of electrically conducting elements (208; 408); and wherein the movable cleaning element is configured so that a movement of the movable cleaning element varies the volume, and varying the volume may cause selective ingress and egress of material into and out of the volume through the channel.
A computer-implemented voice synthesis method comprising: supplying a first trained model with control data including phonetic identifier data to generate a series of frequency spectra of harmonic components; supplying a second trained model with the control data to generate a waveform signal representative of non-harmonic components; and generating a voice signal including the harmonic components and the non-harmonic components based on the series of frequency spectra of the harmonic components generated by the first trained model and the waveform signal representative of the non-harmonic components generated by the second trained model. supplying a first trained model with control data including phonetic identifier data to generate a series of frequency spectra of harmonic components; supplying a second trained model with the control data to generate a waveform signal representative of non-harmonic components; and generating a voice signal including the harmonic components and the non-harmonic components based on the series of frequency spectra of the harmonic components generated by the first trained model and the waveform signal representative of the non-harmonic components generated by the second trained model.
An energy storage apparatus comprising: an energy storage device ; an outer case which accommodates the energy storage device ; a partition plate which is disposed between the energy storage device and a side wall of the outer case ; and a discharge portion which is disposed on the outer case , the discharge portion having one or more openings through which a gas, which has passed through a flow passage formed between the partition plate and the side wall , is discharged from the outer case , characterized in that a first guide portion which is disposed adjacently to the discharge portion is further provided such that the first guide portion extends in a first direction, which intersects with the partition plate and the side wall , between the partition plate and the side wall , the outer case includes: a body having an opening; and a lid body disposed so as to close the opening, the first guide portion is disposed in the body , and the lid body includes a second guide portion which is continuously formed with the first guide portion in a second direction which intersects with the first direction, the gas discharged from the energy storage device being guided by the second guide portion and the first guide portion until the gas reaches the discharge portion , and the outer case further includes a third guide portion which is formed on an upper wall of the outer case in a projecting manner toward the energy storage device , and guides the gas discharged from the energy storage device toward the second guide portion . an energy storage device ; an outer case which accommodates the energy storage device ; a partition plate which is disposed between the energy storage device and a side wall of the outer case ; and a discharge portion which is disposed on the outer case , the discharge portion having one or more openings through which a gas, which has passed through a flow passage formed between the partition plate and the side wall , is discharged from the outer case , characterized in that a first guide portion which is disposed adjacently to the discharge portion is further provided such that the first guide portion extends in a first direction, which intersects with the partition plate and the side wall , between the partition plate and the side wall , the outer case includes: a body having an opening; and a lid body disposed so as to close the opening, the first guide portion is disposed in the body , and the lid body includes a second guide portion which is continuously formed with the first guide portion in a second direction which intersects with the first direction, the gas discharged from the energy storage device being guided by the second guide portion and the first guide portion until the gas reaches the discharge portion , and the outer case further includes a third guide portion which is formed on an upper wall of the outer case in a projecting manner toward the energy storage device , and guides the gas discharged from the energy storage device toward the second guide portion .