mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile air conditioner with illumination , comprising: a base pan , an air shroud engaging said base pan ; a plurality of ventilation holes in at least one of said base pan or said air shroud ; a luminaire disposed within one of said base pan or said air shroud , said luminaire emitting light through at least some of said plurality of ventilation holes . a base pan , an air shroud engaging said base pan ; a plurality of ventilation holes in at least one of said base pan or said air shroud ; a luminaire disposed within one of said base pan or said air shroud , said luminaire emitting light through at least some of said plurality of ventilation holes .
A flexible cable comprising: a plurality of helical links (106; 206), each link (106; 206) coupled to one another, and each link having: a body that extends helically about a central axis (A-A) of the link, the body having an inner surface and an outer surface , characterized by further comprising a male protrusion extending from the inner surface of the body at both ends of the body, wherein each protrusion defines a hole formed through the protrusion, each hole being coaxial with the body, wherein the body defines a female recess on the inner surface of the body corresponding to each protrusion , the recesses located at both ends of the body, wherein the body has a central portion located on the inner surface between the pairs of protrusions and recesses , the central portion extending about the central axis (A-A) and being spaced therefrom and having a cavity defined between the pairs of protrusions and recesses ; and a string extending through the holes formed through each protrusion and coupling the plurality of links (106; 206). a body that extends helically about a central axis (A-A) of the link, the body having an inner surface and an outer surface , characterized by further comprising a male protrusion extending from the inner surface of the body at both ends of the body, wherein each protrusion defines a hole formed through the protrusion, each hole being coaxial with the body, wherein the body defines a female recess on the inner surface of the body corresponding to each protrusion , the recesses located at both ends of the body, wherein the body has a central portion located on the inner surface between the pairs of protrusions and recesses , the central portion extending about the central axis (A-A) and being spaced therefrom and having a cavity defined between the pairs of protrusions and recesses ; and a string extending through the holes formed through each protrusion and coupling the plurality of links (106; 206).
Catalytic device comprising: - a hollow body , - a piston housed in the hollow body, - a catalyst of a gas generation reaction based on bringing a reactive liquid into contact with the catalyst , the catalyst being housed in a catalysis chamber , the piston and the hollow body defining a hermetic compression chamber for containing a compressible fluid , and being mobile relative to one another between a closed position in which the catalysis chamber is tight to the reactive liquid, and an open position for the entry of the reactive liquid into the catalysis chamber, the catalytic device being conformed to switch from the open position to the closed position, respectively from the closed position to the open position, when the compressible fluid is contained in the compression chamber and a force applied to the piston is greater than or equal to, respectively less than, a closure force. - a hollow body , - a piston housed in the hollow body, - a catalyst of a gas generation reaction based on bringing a reactive liquid into contact with the catalyst , the catalyst being housed in a catalysis chamber , the piston and the hollow body defining a hermetic compression chamber for containing a compressible fluid , and being mobile relative to one another between a closed position in which the catalysis chamber is tight to the reactive liquid, and an open position for the entry of the reactive liquid into the catalysis chamber, the catalytic device being conformed to switch from the open position to the closed position, respectively from the closed position to the open position, when the compressible fluid is contained in the compression chamber and a force applied to the piston is greater than or equal to, respectively less than, a closure force.
A method for cryopreservation of an initially liquid sample comprising a biological material in a cryopreservation medium , said biological material being substantially located or concentrated within the initially liquid sample at a base thereof, the method comprising the step of cooling the top surface of the sample to selectively form an ice layer comprising a pure volume of crystalline ice at the top surface of the sample, and wherein the cooling applied to the top surface of the sample is continued until a layer of the sample below the ice layer solidifies to form a vitrified, or amorphous solid, layer as a result of cooling below the glass transition temperature (Tg).
A solar cell, characterized by comprising: a substrate having a front surface and a rear surface opposite to the front surface ; wherein the substrate includes a base and an emitter ; a first passivation layer , a second passivation layer and a third passivation layer sequentially formed on the front surface and in a direction away from the front surface ; wherein the first passivation layer is configured to cover the emitter and includes a dielectric material; the second passivation layer includes a first silicon nitride Si m N n material, and a ratio of n/m is 0.5-1; the third passivation layer includes a silicon oxynitride SiO i N j material, and a ratio of j/i is 0.1∼0.6; wherein the dielectric material is an aluminum oxide Al x O y material, and a ratio of y/x is 1.1~1.5; and a tunneling oxide layer and a doped conductive layer sequentially formed on the rear surface and in a direction away from the rear surface , wherein the doped conductive layer and the substrate have a doping element of a same conductivity type; wherein the first passivation layer has a thickness of 3 nm~10 nm in a direction perpendicular to the front surface . a substrate having a front surface and a rear surface opposite to the front surface ; wherein the substrate includes a base and an emitter ; a first passivation layer , a second passivation layer and a third passivation layer sequentially formed on the front surface and in a direction away from the front surface ; wherein the first passivation layer is configured to cover the emitter and includes a dielectric material; the second passivation layer includes a first silicon nitride Si m N n material, and a ratio of n/m is 0.5-1; the third passivation layer includes a silicon oxynitride SiO i N j material, and a ratio of j/i is 0.1∼0.6; wherein the dielectric material is an aluminum oxide Al x O y material, and a ratio of y/x is 1.1~1.5; and a tunneling oxide layer and a doped conductive layer sequentially formed on the rear surface and in a direction away from the rear surface , wherein the doped conductive layer and the substrate have a doping element of a same conductivity type; wherein the first passivation layer has a thickness of 3 nm~10 nm in a direction perpendicular to the front surface .
Lifter, comprising: a fixed mast structure ; a movable mast structure that is movable relative to the fixed mast structure ; at least one transmission means , such as at least one chain or positive drive belt or cog belt or rack ; and a load carrier , in particular a fork load carrier , being connected to the at least one transmission means and configured to carry a load ; wherein the at least one transmission means is movably connected to the movable mast structure while being configured to move along a respective closed loop path, the closed loop path being stationary relative to the movable mast structure; characterized in that the lifter further comprises an electric motor for providing power for lifting the load carrier during a lifting phase, wherein the electric motor is configured and managed to generate electric power during a lowering phase. a fixed mast structure ; a movable mast structure that is movable relative to the fixed mast structure ; at least one transmission means , such as at least one chain or positive drive belt or cog belt or rack ; and a load carrier , in particular a fork load carrier , being connected to the at least one transmission means and configured to carry a load ; wherein the at least one transmission means is movably connected to the movable mast structure while being configured to move along a respective closed loop path, the closed loop path being stationary relative to the movable mast structure; characterized in that the lifter further comprises an electric motor for providing power for lifting the load carrier during a lifting phase, wherein the electric motor is configured and managed to generate electric power during a lowering phase.
A process for vitrification of one or more biological materials above cryogenic temperature, the method comprising: a) providing a capillary membrane comprising a plurality of capillary channels, each of said capillary channels having a first opening and a second opening , wherein the plurality of capillary channels is housed in a substrate and is bound together to form the capillary membrane and wherein each of said capillary channels has a cross-sectional area of 0.01 - 100 square microns; b) providing a vitrification mixture , said vitrification mixture comprising one or more biological materials and a vitrification medium; c) contacting said capillary membrane with said vitrification mixture such that the capillary membrane contacts a surface of the vitrification mixture, the capillary membrane contacting the vitrification mixture such that the first opening of said capillary channels is operably in contact with said vitrification mixture; d) said second openings of said capillary channels operably in communication with a surrounding atmosphere having humidity below that of said vitrification mixture; and e) desiccating away the said vitrification mixture by capillary action until the said vitrification mixture enters into a glassy state. a) providing a capillary membrane comprising a plurality of capillary channels, each of said capillary channels having a first opening and a second opening , wherein the plurality of capillary channels is housed in a substrate and is bound together to form the capillary membrane and wherein each of said capillary channels has a cross-sectional area of 0.01 - 100 square microns; b) providing a vitrification mixture , said vitrification mixture comprising one or more biological materials and a vitrification medium; c) contacting said capillary membrane with said vitrification mixture such that the capillary membrane contacts a surface of the vitrification mixture, the capillary membrane contacting the vitrification mixture such that the first opening of said capillary channels is operably in contact with said vitrification mixture; d) said second openings of said capillary channels operably in communication with a surrounding atmosphere having humidity below that of said vitrification mixture; and e) desiccating away the said vitrification mixture by capillary action until the said vitrification mixture enters into a glassy state.
A method for providing with a machine learning model a prediction as to the disease state of a patient from a 2D or 3D imagery, wherein the machine learning model includes a detection model, comprising the steps of: a) detecting, by the detection model, one or more regions of the imagery including disease candidates; b) subjecting the one or more regions to inference by the machine learning model to produce the prediction; c) presenting an image with a risk score or classification associated with the prediction, wherein the image is further augmented with highlighting to indicate the one or more regions in the image; d) providing a user interface tool for highlighting one or more regions of the image, e) receiving a user input highlighting one or more regions of the image; f) subjecting the highlighted one or more regions to inference by the machine learning model to generate a new risk score; and g) presenting the results of the inference on the highlighted one or more regions, including the new risk score, to the user via the display. a) detecting, by the detection model, one or more regions of the imagery including disease candidates; b) subjecting the one or more regions to inference by the machine learning model to produce the prediction; c) presenting an image with a risk score or classification associated with the prediction, wherein the image is further augmented with highlighting to indicate the one or more regions in the image; d) providing a user interface tool for highlighting one or more regions of the image, e) receiving a user input highlighting one or more regions of the image; f) subjecting the highlighted one or more regions to inference by the machine learning model to generate a new risk score; and g) presenting the results of the inference on the highlighted one or more regions, including the new risk score, to the user via the display.
A method for operating a cardiac CT imaging system in coronary CT with prospective electrocardiography-triggering of the imaging system , the method comprising: determining a plurality of R-peak times (t i ) from a dataset of electrocardiography data; determining a variability of a heart rate by statistically analyzing the determined R-peak times (t i ); automatically adjusting an acquisition time period (ΔT ac ) of the CT imaging system for acquiring projection data based on the determined variability of the heart rate; and characterized in that automatically adjusting the acquisition time period comprises automatically adjusting a length of the acquisition time period (ΔT ac ) based on the determined variability of the heart rate. determining a plurality of R-peak times (t i ) from a dataset of electrocardiography data; determining a variability of a heart rate by statistically analyzing the determined R-peak times (t i ); automatically adjusting an acquisition time period (ΔT ac ) of the CT imaging system for acquiring projection data based on the determined variability of the heart rate; and characterized in that automatically adjusting the acquisition time period comprises automatically adjusting a length of the acquisition time period (ΔT ac ) based on the determined variability of the heart rate.
A method, performed by a mobile device , comprising: receiving, from a base station , a first threshold value and a second threshold value, wherein the first threshold value and the second threshold value are associated with a physical random access channel PRACH used for extended coverage of the base station , hereafter referred to as an mPRACH; measuring downlink pathloss from the base station to the mobile device ; and transmitting a preamble signal, to the base station using the mPRACH based on a comparison of the downlink pathloss measurements with the first and second threshold values, wherein said first threshold value is associated with a minimum pathloss to use the mPRACH for access and said second threshold value is associated with a maximum pathloss to prevent the mobile device from connecting to the base station . receiving, from a base station , a first threshold value and a second threshold value, wherein the first threshold value and the second threshold value are associated with a physical random access channel PRACH used for extended coverage of the base station , hereafter referred to as an mPRACH; measuring downlink pathloss from the base station to the mobile device ; and transmitting a preamble signal, to the base station using the mPRACH based on a comparison of the downlink pathloss measurements with the first and second threshold values, wherein said first threshold value is associated with a minimum pathloss to use the mPRACH for access and said second threshold value is associated with a maximum pathloss to prevent the mobile device from connecting to the base station .
An ultra-violet (UV) light source assembly for treating a fluid with UV light comprising: a tubular housing defining: an interior chamber having a treatment zone; an inlet ; and an outlet so that the fluid entering the inlet passes through the treatment zone; a mounting bracket coupled to the tubular housing, the mounting bracket defining at least one slot and a hollow ; a UV source mounted in the interior chamber for supplying UV light to the treatment zone and comprising an RFID tag ; characterized in that the UV source includes: at least one tab that twist-locks in the slot; a connector that aligns with the hollow when locked for cabling to a ballast controller ; and in that an RFID antenna is coupled to the mounting bracket so that when locked, the RFID antenna interacts with the RFID tag to emit a signal. a tubular housing defining: an interior chamber having a treatment zone; an inlet ; and an outlet so that the fluid entering the inlet passes through the treatment zone; a mounting bracket coupled to the tubular housing, the mounting bracket defining at least one slot and a hollow ; a UV source mounted in the interior chamber for supplying UV light to the treatment zone and comprising an RFID tag ; characterized in that the UV source includes: at least one tab that twist-locks in the slot; a connector that aligns with the hollow when locked for cabling to a ballast controller ; and in that an RFID antenna is coupled to the mounting bracket so that when locked, the RFID antenna interacts with the RFID tag to emit a signal.
Centrifuge rotor comprising a lower part and a cover , wherein the centrifuge rotor has a rotational axis (D), wherein the cover can be placed onto the lower part along the rotational axis (D) in a closing direction (S) and can be removed along the rotational axis (D) in a detaching direction (L), wherein, when the cover is closed, there is a closure between the lower part and the cover , wherein at least one of the elements out of the lower part and the cover comprises at least one first undercut , in which, when the cover is closed, at least one projection engages, which is arranged on the other of the elements out of the cover and the lower part , wherein the projection is arranged on a lever having a fulcrum , characterised in that the cover comprises a circular cut-out for fastening the centrifuge rotor in a centrifuge, wherein the lever has a concave shaping which continues the circular cut-out and points towards the rotational axis (D), wherein the lever is arranged such that, when the cover is closed, the concave shaping does not project inwards into the circular cut-out .
A polymeric keg connector for fluidly connecting the interior of a container comprising an opening with a fluid tube, the keg connector comprising: (a) a connector base body ; (b) coupling means for firmly and releasably coupling the connector base body to the opening of the container; (c) a support element movable in a longitudinal direction Z with respect to the base body, by sliding one sliding surface of the support element against one sliding surface of the main base body , said support element rigidly supporting: (d) a tube comprising a penetration end portion parallel to the longitudinal axis, Z, and suitable for penetrating into said opening; (e) penetration actuation means for reversibly moving by a given distance along the longitudinal axis, Z, the support element and tube, upon movement of the support element when the base body is coupled to said opening, from a first retracted position, Z0, to a second connected position , Z2, wherein said distance is sufficient for the said tube penetration end to penetrate into said opening provided on a closure of said container, characterized in that , the sliding surfaces of both said connector base body and said support element are manufactured in a particulate reinforced polymeric material and in that the polymeric material of the connector base body is reinforced by a particulate material that is different than the particulate material reinforcing the support element. (a) a connector base body ; (b) coupling means for firmly and releasably coupling the connector base body to the opening of the container; (c) a support element movable in a longitudinal direction Z with respect to the base body, by sliding one sliding surface of the support element against one sliding surface of the main base body , said support element rigidly supporting: (d) a tube comprising a penetration end portion parallel to the longitudinal axis, Z, and suitable for penetrating into said opening; (e) penetration actuation means for reversibly moving by a given distance along the longitudinal axis, Z, the support element and tube, upon movement of the support element when the base body is coupled to said opening, from a first retracted position, Z0, to a second connected position , Z2, wherein said distance is sufficient for the said tube penetration end to penetrate into said opening provided on a closure of said container, characterized in that , the sliding surfaces of both said connector base body and said support element are manufactured in a particulate reinforced polymeric material and in that the polymeric material of the connector base body is reinforced by a particulate material that is different than the particulate material reinforcing the support element.
Device for emitting a light beam, comprising a lens and means for producing a cut-off line in the beam, said device being configured to allow a position of said cut-off line to be adjusted in a given direction, especially vertically, depending on an angular position of said lens about a hinge axis , said lens comprising an optical part for transmission of the beam and a hinge part that hinges in rotation about said hinge axis , characterized in that said hinge part and said optical part are made of an integral piece of material and in that said optical part extends from arms of said hinge part while getting radially further away from said hinge axis , said arms comprising swivels for hinging the lens about said hinge axis .