mhurhangee/patent-ind-claim-en huggingface dataset:
An airbag, in particular a front passenger airbag, comprising a cushion , wherein the cushion has a neck and a body portion , wherein the cushion can be filled with gas from the neck, wherein the cushion is configured such that, an accommodation space is formed between the neck and the body portion and passes through the cushion transversely in an inflated and deployed state of the cushion, in particular wherein the accommodation space passes through the cushion in a horizontal direction transverse to an ejection direction of the cushion, wherein the airbag comprises a guide device configured to guide the cushion during inflation and deployment of the cushion, characterized in that the guide device is flexibly foldable, wherein the folded cushion is accommodated in the folded guide device, wherein the guide device can be transformed from a folded state to a deployed state in which the guide device forms a guide sleeve. an accommodation space is formed between the neck and the body portion and passes through the cushion transversely in an inflated and deployed state of the cushion, in particular wherein the accommodation space passes through the cushion in a horizontal direction transverse to an ejection direction of the cushion, wherein the airbag comprises a guide device configured to guide the cushion during inflation and deployment of the cushion, characterized in that the guide device is flexibly foldable, wherein the folded cushion is accommodated in the folded guide device, wherein the guide device can be transformed from a folded state to a deployed state in which the guide device forms a guide sleeve.
A high strength steel wire having excellent corrosion resistance, comprising: by weight%, 0.07 to 0.15% of carbon (C), 2.7 to 3.5% of manganese (Mn), 0.10 to 0.50% of silicon (Si), 0% to 0.8% of chromium (Cr), 0.01 to 0.02% of titanium (Ti), 0.001 to 0.003% of boron (B), 0.005% or less of Nitrogen (N), 0.015% or less of Sulphur (S) and a remainder of iron (Fe) and unavoidable impurities, wherein the microstructure of the steel wire consists of a bainite phase. by weight%, 0.07 to 0.15% of carbon (C), 2.7 to 3.5% of manganese (Mn), 0.10 to 0.50% of silicon (Si), 0% to 0.8% of chromium (Cr), 0.01 to 0.02% of titanium (Ti), 0.001 to 0.003% of boron (B), 0.005% or less of Nitrogen (N), 0.015% or less of Sulphur (S) and a remainder of iron (Fe) and unavoidable impurities, wherein the microstructure of the steel wire consists of a bainite phase.
A light sheet microscope comprising: an illumination unit having a beam source which is configured to direct an illuminating beam propagating along an illumination axis (z) onto a sample , a light-sheet generating means which is configured to generate from the illuminating beam a light-sheet-type illuminating light distribution illuminating the sample in a partial region, a detection unit having a detector which is configured to detect detection light originating from the partial region of the sample that is illuminated by the illuminating light distribution, and an objective jointly provided for the illumination unit and the detection unit and through which the illuminating beam and the detection light pass, wherein the illumination unit has a beam modulation means which is configured to modulate the illuminating beam perpendicular to the illumination axis (z) in contrast to a Gaussian profile, characterized in that the beam modulation means is additionally configured to modulate the illuminating beam along the illumination axis (z) such that an attenuation of the illuminating beam caused by scattering and/or absorption is compensated with increasing depth of penetration into the sample . an illumination unit having a beam source which is configured to direct an illuminating beam propagating along an illumination axis (z) onto a sample , a light-sheet generating means which is configured to generate from the illuminating beam a light-sheet-type illuminating light distribution illuminating the sample in a partial region, a detection unit having a detector which is configured to detect detection light originating from the partial region of the sample that is illuminated by the illuminating light distribution, and an objective jointly provided for the illumination unit and the detection unit and through which the illuminating beam and the detection light pass, wherein the illumination unit has a beam modulation means which is configured to modulate the illuminating beam perpendicular to the illumination axis (z) in contrast to a Gaussian profile, characterized in that the beam modulation means is additionally configured to modulate the illuminating beam along the illumination axis (z) such that an attenuation of the illuminating beam caused by scattering and/or absorption is compensated with increasing depth of penetration into the sample .
An apparatus for performing at least one of mapping and ablation functions, the apparatus comprising: a catheter sized and shaped for vascular access and including an elongate body extending between a proximal end and a distal end; a tip section arranged at the distal end of the elongate body and deployable to form a closed loop, the closed loop comprises an interior surface and an exterior surface , wherein the exterior surface comprises a curved surface; and one or more electrode structures (416a-k) arranged with the tip section , characterized in that the interior surface comprises a surface defining an interior cylindrical space with an axis perpendicular to the plane of the closed loop. a catheter sized and shaped for vascular access and including an elongate body extending between a proximal end and a distal end; a tip section arranged at the distal end of the elongate body and deployable to form a closed loop, the closed loop comprises an interior surface and an exterior surface , wherein the exterior surface comprises a curved surface; and one or more electrode structures (416a-k) arranged with the tip section , characterized in that the interior surface comprises a surface defining an interior cylindrical space with an axis perpendicular to the plane of the closed loop.
A sequential lateral solidification system for crystallizing an amorphous silicon, a-Si, film, comprising: a quasi-continuous wave fiber laser source operative to emit a film irradiating pulsed beam and configured to have a master oscillator power fiber amplifier optical scheme, wherein the master oscillator functions as a seed laser and wherein the current at the input of the seed laser is directly modulated by a seed laser driver , and a controller operative to control the seed laser of the fiber laser source so as to emit: multiple discrete packets of the film irradiating light at a burst repetition rate, BRR, and a plurality of pulses within each packet emitted at a pulse repetition rate, PRR, which is higher than the BRR, wherein a pulse energy, pulse duration and the PRR are controlled so that each packet has a desired packet temporal power profile and packet energy providing transformation of a-Si to polysilicon at each location of the a-Si film which is exposed to at least one packet. a quasi-continuous wave fiber laser source operative to emit a film irradiating pulsed beam and configured to have a master oscillator power fiber amplifier optical scheme, wherein the master oscillator functions as a seed laser and wherein the current at the input of the seed laser is directly modulated by a seed laser driver , and a controller operative to control the seed laser of the fiber laser source so as to emit: multiple discrete packets of the film irradiating light at a burst repetition rate, BRR, and a plurality of pulses within each packet emitted at a pulse repetition rate, PRR, which is higher than the BRR, wherein a pulse energy, pulse duration and the PRR are controlled so that each packet has a desired packet temporal power profile and packet energy providing transformation of a-Si to polysilicon at each location of the a-Si film which is exposed to at least one packet. multiple discrete packets of the film irradiating light at a burst repetition rate, BRR, and a plurality of pulses within each packet emitted at a pulse repetition rate, PRR, which is higher than the BRR, wherein a pulse energy, pulse duration and the PRR are controlled so that each packet has a desired packet temporal power profile and packet energy providing transformation of a-Si to polysilicon at each location of the a-Si film which is exposed to at least one packet.
A method for manufacturing a compostable pod for brewing products, comprising the following steps: - preparing a first and a second sheet made of biodegradable material with gas barrier properties; - shaping said first sheet such as to make at least a first concave portion ; - shaping said second sheet such as to make at least a second concave portion ; - filling the first concave portion with a predetermined quantity of brewing product; - joining said first concave portion to said second concave portion so that the respective concavities are opposite one another and define a casing for said brewing product; characterised in that said shaping steps of the first and of the second sheet envisage: - moistening at least a first portion of said first sheet and a second portion of said second sheet ; - configuring said first and said second portion so as to make said first and said second concave portion ; - drying said first and said second concave portion . - preparing a first and a second sheet made of biodegradable material with gas barrier properties; - shaping said first sheet such as to make at least a first concave portion ; - shaping said second sheet such as to make at least a second concave portion ; - filling the first concave portion with a predetermined quantity of brewing product; - joining said first concave portion to said second concave portion so that the respective concavities are opposite one another and define a casing for said brewing product; - moistening at least a first portion of said first sheet and a second portion of said second sheet ; - configuring said first and said second portion so as to make said first and said second concave portion ; - drying said first and said second concave portion .
An antithrombogenic metallic material comprising a metallic material whose surface is coated with a coating material, said coating material containing: a phosphonic acid derivative or a catechol derivative, said phosphonic acid derivative being a carboxyalkylphosphonic acid or an aminoalkylphosphonic acid, and said catechol derivative being a compound of the following General Formula (IV), a compound of the following General Formula (V), a compound of the following General Formula (VI), or a compound of the following General Formula (VII) a polymer containing, as a constituent monomer, a compound selected from the group consisting of alkyleneimines, vinylamines, allylamines, lysine, protamine, and diallyldimethylammonium chloride; and an anionic compound containing a sulfur atom and having anticoagulant activity; said polymer being covalently bound to said phosphonic acid derivative or said catechol derivative, said phosphonic acid derivative or said catechol derivative being bound to said metallic material through a phosphonic acid group or a catechol group thereof, wherein the abundance ratio of nitrogen atoms to the abundance of total atoms as measured by X-ray photoelectron spectroscopy (XPS) on the surface is 4.0 to 13.0 atomic percent. a phosphonic acid derivative or a catechol derivative, said phosphonic acid derivative being a carboxyalkylphosphonic acid or an aminoalkylphosphonic acid, and said catechol derivative being a compound of the following General Formula (IV), a compound of the following General Formula (V), a compound of the following General Formula (VI), or a compound of the following General Formula (VII) a polymer containing, as a constituent monomer, a compound selected from the group consisting of alkyleneimines, vinylamines, allylamines, lysine, protamine, and diallyldimethylammonium chloride; and an anionic compound containing a sulfur atom and having anticoagulant activity;
Apparatus for preparing an end portion of a shielded electrical cable , wherein the outer surface of said end portion has a shielding braid arranged around at least one layer of electrically insulating material sheathing at least one conductor of said shielded electrical cable , said apparatus comprising a contact element provided with a contact surface adapted to engage the outer surface of said end portion of the cable in order to apply a pressure adapted to deform said shielding braid , movement means to move said contact element with respect to said cable , and characterised in that said apparatus comprises a logic control unit in which at least one movement path around the longitudinal axis (A-A) of said cable is stored or acquired, said logic control unit being configured to control said movement means depending on said at least one path to move said contact element along said path and to adjust the distance (D) between the longitudinal axis (A-A) of said shielded electrical cable and said contact surface of said contact element , and in that said movement means are configured to move said contact element and/or to adjust the distance (D) between the longitudinal axis (A-A) of said shielded electrical cable and said contact surface of said contact element by moving said contact element with respect to said shielded electrical cable on a plane and in that said movement means comprise two linear actuators configured to move said contact element with respect to said shielded electrical cable by combining two linear movements along at least two axes.
A wastewater treatment process comprising: heating an alumina-supported catalyst comprising alumina in a form other than α-alumina and a catalyst deposited thereon at a temperature effective to transform at least a portion of the alumina to its α-alumina form and produce a stabilized α-alumina supported catalyst, wherein the stabilized α-alumina supported catalyst refers to an alumina supported catalyst produced by the heat treatment processes that has at least a majority of its alumina in the α-phase; and subjecting a wastewater stream comprising an amount of contaminants and having a pH of 9 or greater to a wet air oxidation or hydrolysis process in the presence of the stabilized α-alumina supported catalyst to reduce an amount of the contaminants in the wastewater stream. heating an alumina-supported catalyst comprising alumina in a form other than α-alumina and a catalyst deposited thereon at a temperature effective to transform at least a portion of the alumina to its α-alumina form and produce a stabilized α-alumina supported catalyst, wherein the stabilized α-alumina supported catalyst refers to an alumina supported catalyst produced by the heat treatment processes that has at least a majority of its alumina in the α-phase; and subjecting a wastewater stream comprising an amount of contaminants and having a pH of 9 or greater to a wet air oxidation or hydrolysis process in the presence of the stabilized α-alumina supported catalyst to reduce an amount of the contaminants in the wastewater stream.
A braking system for a heavy duty vehicle , the braking system comprising a first brake controller (WEMi, 570) arranged to control braking on a first wheel , and a second brake controller (WEMi, 570) arranged to control braking on a second wheel , based on a respective wheel slip limit (λ LIM i , 710) and on a respective brake torque request (T REQ i ), wherein the first and the second brake controllers are interconnected via a back-up connection arranged to allow one of the first and the second brake controller to assume braking control of the wheel of the other of the first and the second brake controller in case of brake controller failure, characterized in that the braking system comprises a control unit (VMM, 110) arranged to, in response to brake controller failure, reduce the wheel slip limit (λ LlM i, 710) associated with the failed brake controller to a reduced wheel slip limit (λ LIM i, 730).
A fixture (50; 60) for insertion into a bore hole arranged in bone tissue, the fixture having a geometrical central axis and comprising a leading portion provided with at least one cutting edge for creating a female thread in the bone tissue, and a trailing portion following the leading portion in the created female thread, wherein both of said portions comprise a respective outer surface being threaded for engagement with bone tissue, wherein thread tops and thread bottoms are provided alternatingly in the axial direction of the fixture, each thread top forming part of a thread peak (30a; 30b) arranged between two consecutive thread bottoms, wherein a largest thread peak of said cutting edge of the leading portion forms part of a thread having a lead, wherein compared with an imaginary continuation into the trailing portion of said largest thread peak following said lead: a first area of a thread peak of the trailing portion is axially aligned with said imaginary continuation, and a second area of said thread peak of the trailing portion is axially displaced compared with said imaginary continuation, thereby providing a strain to the bone when said thread peak of the trailing portion engages with the created female thread, the comparison of the thread peaks being made at a same first distance from a respective thread bottom measured perpendicularly to said central axis, and/or at a same second distance from a respective thread top measured perpendicularly to said central axis, wherein a top radius of a thread peak in the trailing portion is larger than a top radius of said largest thread peak of said cutting edge in the leading portion. a first area of a thread peak of the trailing portion is axially aligned with said imaginary continuation, and a second area of said thread peak of the trailing portion is axially displaced compared with said imaginary continuation, thereby providing a strain to the bone when said thread peak of the trailing portion engages with the created female thread, the comparison of the thread peaks being made at a same first distance from a respective thread bottom measured perpendicularly to said central axis, and/or at a same second distance from a respective thread top measured perpendicularly to said central axis,
A component mounter comprising: a head provided with multiple component holding sections ; a head moving device configured to move the head ; a component supply device configured to supply components (P) provided with a connection terminal on a lower side of the component (P) to the component holding section ; an imaging device configured to image the component (P) held by the component holding section ; a transfer device configured to provide a coating layer of a paste that is to be transferred to the connection terminal of the component (P); and a control device configured to control the head , the head moving device , the component supply device , the imaging device , and the transfer device based on a first operation mode, wherein in the first operation mode, the control device is configured to perform control to, after the components (P) supplied by the component supply device have been sequentially picked up by the multiple component holding sections of the head , cause the imaging device to image the components (P) held by the multiple component holding sections , recognize the position and/or orientation of each of the components (P) based on the images of each component (P), characterized in that: the control device is configured to control the head and the head moving device based on the position and/or orientation of each of the components (P) such that the coating layer is transferred to the connection terminals of each of the components in a transfer area set in the coating layer of each of the components (P) set in advance by the control device so that the transfer area does not include a margin (M1, M2, M3, M4) based on the holding deviation of each of the components (P), and then each of the components (P) is mounted on a board (S). a head provided with multiple component holding sections ; a head moving device configured to move the head ; a component supply device configured to supply components (P) provided with a connection terminal on a lower side of the component (P) to the component holding section ; an imaging device configured to image the component (P) held by the component holding section ; a transfer device configured to provide a coating layer of a paste that is to be transferred to the connection terminal of the component (P); and a control device configured to control the head , the head moving device , the component supply device , the imaging device , and the transfer device based on a first operation mode, wherein in the first operation mode, the control device is configured to perform control to, after the components (P) supplied by the component supply device have been sequentially picked up by the multiple component holding sections of the head , cause the imaging device to image the components (P) held by the multiple component holding sections , recognize the position and/or orientation of each of the components (P) based on the images of each component (P),