mhurhangee/patent-ind-claim-en huggingface dataset:
A battery pack , which includes a pack case configured to accommodate a cell module assembly in an inner space thereof and having an opening formed at one side thereof, and a pack cover having a degassing port communicating with the inner space and configured to cover the opening of the pack case , wherein the cell module assembly includes: a cell stack configured by secondary battery cells ; and a cell fixing frame having an upper plate and a lower plate respectively disposed at an upper portion and a lower portion of the cell stack and disposed in surface contact with an upper wall and a lower wall of the pack case , wherein at least one of the upper plate and the lower plate includes: at least one gas moving route formed by concavely depressing at least one region of one surface disposed in surface contact with the upper wall or the lower wall of the pack case along a predesignated path toward the degassing port ; and at least one hole formed vertically through the gas moving route , wherein the at least one hole is formed right above or right below a gas pocket that is a space in which gas leaking from at least one side of the cell stack is collected. a cell stack configured by secondary battery cells ; and a cell fixing frame having an upper plate and a lower plate respectively disposed at an upper portion and a lower portion of the cell stack and disposed in surface contact with an upper wall and a lower wall of the pack case , wherein at least one of the upper plate and the lower plate includes: at least one gas moving route formed by concavely depressing at least one region of one surface disposed in surface contact with the upper wall or the lower wall of the pack case along a predesignated path toward the degassing port ; and at least one hole formed vertically through the gas moving route , wherein the at least one hole is formed right above or right below a gas pocket that is a space in which gas leaking from at least one side of the cell stack is collected. at least one gas moving route formed by concavely depressing at least one region of one surface disposed in surface contact with the upper wall or the lower wall of the pack case along a predesignated path toward the degassing port ; and at least one hole formed vertically through the gas moving route , wherein the at least one hole is formed right above or right below a gas pocket that is a space in which gas leaking from at least one side of the cell stack is collected.
A method for wireless communications by a network entity (no) comprising: determining one or more bandwidth parts, BWPs, within a maximum channel bandwidth for radio link monitoring, RLM; and transmitting , to a user equipment, UE , an RS configuration indicating the one or more BWPs to monitor for one or more RSs. determining one or more bandwidth parts, BWPs, within a maximum channel bandwidth for radio link monitoring, RLM; and transmitting , to a user equipment, UE , an RS configuration indicating the one or more BWPs to monitor for one or more RSs.
A computer-implemented method for training a machine learning model for detecting irregularities in two-dimensional chest X-ray medical images, the method including: - segmenting at least one predetermined type of body region depicted in a two-dimensional chest X-ray medical image , said body region having a depicted irregularity of a known type, wherein the body region are the lungs; - defining a plurality of image segments each including at least part of the depicted body region ; - training a machine learning model based on the image segments to detect similar irregularities 12) in other medical images ; characterized in that : - a resolution of the image segments is maintained; - an image segment does not include more than one lung ; - the depicted irregularity is of known size and position; and - the image segments are defined so that the irregularity is contained in at least one image segment as a whole and there are no image segments that only contain part of the irregularity . - segmenting at least one predetermined type of body region depicted in a two-dimensional chest X-ray medical image , said body region having a depicted irregularity of a known type, wherein the body region are the lungs; - defining a plurality of image segments each including at least part of the depicted body region ; - training a machine learning model based on the image segments to detect similar irregularities 12) in other medical images ; characterized in that : - a resolution of the image segments is maintained; - an image segment does not include more than one lung ; - a resolution of the image segments is maintained; - an image segment does not include more than one lung ; - the depicted irregularity is of known size and position; and - the image segments are defined so that the irregularity is contained in at least one image segment as a whole and there are no image segments that only contain part of the irregularity .
Power reserve indicator mechanism for horology, for displaying the power reserve of energy storage means of a timepiece movement , which energy storage means are arranged to be powered in the winding phase by an input wheel actuated by a winding-stem comprised in said movement or by an automatic winding mechanism comprised in said movement or by an external winder, and are arranged to restore energy to said movement in the unwinding phase via an output wheel , said mechanism including at least one display wheel set (10; 12) arranged to be directly or indirectly driven by said input wheel or by said output wheel , said mechanism including a differential mechanism of which said input wheel and said output wheel constitute two inputs, and including, at a single output, an output wheel set which is arranged to directly or indirectly drive said display wheel set (10; 12), characterized in that one said display wheel set is a display wheel directly or indirectly driven by a toothed ring which meshes with said output wheel set , and in that the pivot axis of said display wheel is internal or external to said ring , inside which pivot the wheel sets of said differential mechanism .
Use of an aluminum-containing and/or aluminum-alloyed hot-dip galvanizing layer for generating (producing) blaze resistance and/or fire resistance, especially blaze resistance and/or fire resistance according to DIN EN 13501-2: 2016-12 and/or DIN 4102-2: 1977-09, on a steel component and/or for providing (equipping) a steel component with blaze resistance and/or fire resistance, especially with blaze resistance and/or fire resistance according to DIN EN 13501-2: 2016-12 and/or DIN 4102-2: 1977-09, wherein the aluminum-containing and/or aluminum-alloyed hot-dip galvanizing layer has the following composition, wherein all quantities stated below are based on the aluminum-containing and/or aluminum-alloyed hot-dip galvanizing layer and are to be selected such that a total of 100 wt.% results: (i) zinc (Zn) in amounts of from 92 wt.% to 96 wt.%, (ii) aluminum (Al) in amounts of from 4 wt.% to 8 wt.%, (iii) optionally one or more further metals selected from the group of bismuth (Bi), lead (Pb), tin (Sn), nickel (Ni), silicon (Si), magnesium (Mg) as well as combinations thereof. (i) zinc (Zn) in amounts of from 92 wt.% to 96 wt.%, (ii) aluminum (Al) in amounts of from 4 wt.% to 8 wt.%, (iii) optionally one or more further metals selected from the group of bismuth (Bi), lead (Pb), tin (Sn), nickel (Ni), silicon (Si), magnesium (Mg) as well as combinations thereof.
A robotic cleaner comprising: a housing (100; 200); driven wheels rotatably mounted to the housing (100; 200); a controller for controlling at least the driven wheels; and a bumper (110; 214) coupled the housing (100; 200), at least a portion of the bumper (110; 214) being spaced apart from the housing (100; 200) such that the bumper (110; 214) is movable along at least two axes, wherein a movement of the bumper (110; 214) causes one or more optical switches to be actuated, characterised in that the one or more optical switches include at least one upper optical switch, the upper optical switch being configured to support the bumper (110; 214) in a position that is spaced apart from a top surface of the housing (100; 200). a housing (100; 200); driven wheels rotatably mounted to the housing (100; 200); a controller for controlling at least the driven wheels; and a bumper (110; 214) coupled the housing (100; 200), at least a portion of the bumper (110; 214) being spaced apart from the housing (100; 200) such that the bumper (110; 214) is movable along at least two axes, wherein a movement of the bumper (110; 214) causes one or more optical switches to be actuated, characterised in that the one or more optical switches include at least one upper optical switch, the upper optical switch being configured to support the bumper (110; 214) in a position that is spaced apart from a top surface of the housing (100; 200).
A method for providing a location of a first User Equipment , UE, in a Voice over Wireless Fidelity, VoWIFI, call, the method being carried out by the first UE and comprising: sending a location request to an access point , AP, to which the first UE is attached to; receiving the location of the first UE from the AP , in response to the request; and sending the received location to a network node when establishing the VoWIFI call, wherein the received location has been shared by a second UE with the AP, the second UE being previously or currently attached to the AP and having knowledge of its location, wherein the location shared by the second UE is provided by one of a Global Positioning System, GPS, integrated in the second UE or by a cellular network of which the second UE is a subscriber, wherein the location received from the AP is determined from a plurality of locations shared by a plurality of second UEs with the AP, the plurality of second UEs having knowledge of their locations, wherein the determined location is the location received by a highest number of second UEs, and wherein the received location is shared with the AP by the plurality of second UEs attached to the AP, in response to a broadcast message from the AP, the broadcast message requesting for location information. sending a location request to an access point , AP, to which the first UE is attached to; receiving the location of the first UE from the AP , in response to the request; and sending the received location to a network node when establishing the VoWIFI call, wherein the received location has been shared by a second UE with the AP, the second UE being previously or currently attached to the AP and having knowledge of its location, wherein the location shared by the second UE is provided by one of a Global Positioning System, GPS, integrated in the second UE or by a cellular network of which the second UE is a subscriber, wherein the location received from the AP is determined from a plurality of locations shared by a plurality of second UEs with the AP, the plurality of second UEs having knowledge of their locations, wherein the determined location is the location received by a highest number of second UEs, and wherein the received location is shared with the AP by the plurality of second UEs attached to the AP, in response to a broadcast message from the AP, the broadcast message requesting for location information.
A surgical instrument comprising: a first housing having an internal bore and a first surface , a second housing , the first housing being insertable into the second housing , a shaft disposed within the internal bore, the shaft having a second surface that is matable with the first surface in a mating orientation, characterized in that the first housing is movable relative to the second housing from a first position to a second position to control an insertion depth of the shaft , wherein upon rotation of the first surface relative to the second surface in the mating orientation, a tactile and/or auditory signal is provided to control the insertion depth of shaft . a first housing having an internal bore and a first surface , a second housing , the first housing being insertable into the second housing , a shaft disposed within the internal bore, the shaft having a second surface that is matable with the first surface in a mating orientation, characterized in that the first housing is movable relative to the second housing from a first position to a second position to control an insertion depth of the shaft , wherein upon rotation of the first surface relative to the second surface in the mating orientation, a tactile and/or auditory signal is provided to control the insertion depth of shaft .
A system comprising an implantable medical device and an accessory adapted to be arranged external to the mammal body and to wirelessly transmit signals to said implantable medical device in order to initiate a backup system in the medical device, wherein: the implantable medical device comprises the backup system, the accessory comprises a system including an external control unit for controlling predefined functions of said implantable medical device, and adapted to send overriding control and power signals and wherein said signals are sent in order to initiate said backup system to override a built-in control and/or powering system of the implantable medical device, the backup system, when being triggered, is arranged to override a built-in control and/or powering system of said implantable medical device, the backup system is arranged to perform a predetermined emergency activity, the predetermined emergency activity being chosen from at least one of the following: running a motor, and pumping using a pump. the implantable medical device comprises the backup system, the accessory comprises a system including an external control unit for controlling predefined functions of said implantable medical device, and adapted to send overriding control and power signals and wherein said signals are sent in order to initiate said backup system to override a built-in control and/or powering system of the implantable medical device, the backup system, when being triggered, is arranged to override a built-in control and/or powering system of said implantable medical device, the backup system is arranged to perform a predetermined emergency activity, the predetermined emergency activity being chosen from at least one of the following: running a motor, and pumping using a pump. running a motor, and pumping using a pump.
A method of thermal treatment of material in a reactor with a high-temperature chamber and with a self-crucible wall including at least one step of determination of the liquidus temperature T liq of the ashes derived from the treated material , where the operating temperature of the reactor T fonc in its steady state is then chosen such that T fonc > T liq and T fonc is chosen such that 30°C ≤ (T fonc -T liq ) ≤ 100°C.
A light based tissue treatment device comprising: an optical fiber light guide for receiving a pulsed incident light beam; an optical arrangement at a light exit end of the optical fiber, comprising: a focusing lens having a central region aligned with the incident light beam; a graded refractive index lens downstream of the central region; a microchip laser oscillator which receives as input pump light the output of the graded refractive index lens; an optical amplifier for amplifying the output of the microchip laser oscillator and for providing a pulsed laser treatment output; and a reflector for reflecting light passing through the focusing lens around the central region to the optical amplifier to form amplifier pump light. an optical fiber light guide for receiving a pulsed incident light beam; an optical arrangement at a light exit end of the optical fiber, comprising: a focusing lens having a central region aligned with the incident light beam; a graded refractive index lens downstream of the central region; a microchip laser oscillator which receives as input pump light the output of the graded refractive index lens; an optical amplifier for amplifying the output of the microchip laser oscillator and for providing a pulsed laser treatment output; and a reflector for reflecting light passing through the focusing lens around the central region to the optical amplifier to form amplifier pump light. a focusing lens having a central region aligned with the incident light beam; a graded refractive index lens downstream of the central region; a microchip laser oscillator which receives as input pump light the output of the graded refractive index lens; an optical amplifier for amplifying the output of the microchip laser oscillator and for providing a pulsed laser treatment output; and a reflector for reflecting light passing through the focusing lens around the central region to the optical amplifier to form amplifier pump light.
A vehicle tilting device for tilting a delivery vehicle for increasing access to items from a storage container transported on the delivery vehicle , characterized in that the vehicle tilting device comprises: a base structure and a tiltable platform connected to the base structure , wherein the tiltable platform comprises guiding features adapted to guide the delivery vehicle onto the tiltable platform , wherein the guiding features comprises raised edges provided along a periphery of the tiltable platform , wherein the raised edges comprise a first set of parallel edges extending in a first direction (X), and a second set of parallel edges extending in a second direction (Y) which is orthogonal to the first direction (X), which first and second sets of edges together defining a platform grid cell , and wherein the tiltable platform is arranged to be connected to a delivery grid cell of a delivery rail system such that that there is a path to and/or from the tiltable platform for the delivery vehicle via the delivery grid cell . a base structure and a tiltable platform connected to the base structure , wherein the tiltable platform comprises guiding features adapted to guide the delivery vehicle onto the tiltable platform , wherein the guiding features comprises raised edges provided along a periphery of the tiltable platform , wherein the raised edges comprise a first set of parallel edges extending in a first direction (X), and a second set of parallel edges extending in a second direction (Y) which is orthogonal to the first direction (X), which first and second sets of edges together defining a platform grid cell , and wherein the tiltable platform is arranged to be connected to a delivery grid cell of a delivery rail system such that that there is a path to and/or from the tiltable platform for the delivery vehicle via the delivery grid cell .
A thermally conductive resin composition comprising a resin (A) having a melting point of 40 to 100 °C and an inorganic filler (B), wherein the resin (A) has a weight loss of less than 10 % when the resin (A) is stored at 150 °C for 100 hours under an atmosphere, wherein the resin (A) is an aliphatic hydrocarbon compound having 1 to 100 carbon atoms and a functional group, and the resin (A) comprises a fatty acid ester or a fatty acid amide having 1 to 100 carbon atoms, and the resin (A) is contained in an amount of 0.1 to 10 % by weight per 100 % by weight of the thermally conductive resin composition; a spherical powder is contained in the inorganic filler (B), and an amount of the spherical powder is 90 % by weight or more per 100 % by weight of a total amount of the inorganic filler (B), a powder having an average particle diameter of 1 to 3 μm is contained in the inorganic filler (B), and an amount of the powder is 40 % by weight or more per 100 % by weight of a total amount of the inorganic filler (B), the average particle diameter of the inorganic filler (B) is represented by a D50 median diameter corresponding to 50% in the weight-based cumulative particle size distribution, and the inorganic filler (B) is contained in an amount of 50 to 90 % by weight per 100 % by weight of the thermally conductive resin composition; and the thermally conductive resin composition further comprises a liquid resin (C) having a viscosity of 100 Pa · s or less at 25 °C, wherein the liquid resin (C) has a weight loss of less than 10 % when the liquid resin (C) is stored at 150 °C for 100 hours under an atmosphere, and the liquid resin (C) comprises an acrylate resin.
A liposome comprising a lipid bilayer and a polymer-conjugated phospholipid, wherein said polymer-conjugated phospholipid is incorporated into said lipid bilayer, and wherein said polymer is a polysaccharide.
A cathode catalyst layer for fuel cells comprising a catalyst, heat-treated ordered mesoporous carbon, and an ionomer, wherein the heat-treated ordered mesoporous carbon is present in an amount of 1% by weight to 15% by weight, with respect to the total weight of the cathode catalyst layer for fuel cells, and characterized in that the heat-treated ordered mesoporous carbon is formed by heat-treating ordered mesoporous carbon containing a hydrophilic group at 900°C to 3000°C for 30 minutes to 3 hours, wherein the heat-treated ordered mesoporous carbon has a hydrophobic surface.
A method for determining stroke volume (SV) of a subject, the method comprising: operating a processing system to receive an input signal that corresponds to arterial blood pressure; operating the processing system to calculate, as a first statistical moment, a standard deviation (σ) associated with numerical values corresponding to a sequence of measured arterial pressure values; operating the processing system to calculate a function (K) of a second statistical moment associated with the numerical values corresponding to the sequence of measured arterial pressure values; characterized by operating the processing system to calculate a compliance factor (C) which corresponds to the compliance of the subject's vasculature and is associated with the numerical values corresponding to the sequence of measured arterial pressure values; operating the processing system to calculate the stroke volume (SV) as a function of the standard deviation (σ), the compliance factor (C) and the function (K), according to: SV = C × K × σ ; and operating a display to present an indication of the calculated stroke volume (SV) to a user. operating a processing system to receive an input signal that corresponds to arterial blood pressure; operating the processing system to calculate, as a first statistical moment, a standard deviation (σ) associated with numerical values corresponding to a sequence of measured arterial pressure values; operating the processing system to calculate a function (K) of a second statistical moment associated with the numerical values corresponding to the sequence of measured arterial pressure values; characterized by operating the processing system to calculate a compliance factor (C) which corresponds to the compliance of the subject's vasculature and is associated with the numerical values corresponding to the sequence of measured arterial pressure values; operating the processing system to calculate the stroke volume (SV) as a function of the standard deviation (σ), the compliance factor (C) and the function (K), according to: SV = C × K × σ ; and operating a display to present an indication of the calculated stroke volume (SV) to a user.
A compound shown in Formula I or a salt thereof: wherein in Formula I, R 1 is selected from , R 3 being a C 1 -C 6 alkoxy group; and R 2 is selected from , R 4 being a 2-, 3-, or 4-position monosubstituted halogen, a 2-, 3-, or 4-position monosubstituted C1-C6 alkyl or alkoxy group, an ester group, a 4-position substituted , a 4-position substituted -CN, a 4-position substituted -NO 2 or disubstituted alkoxy group; representing a connecting end.
An oligonucleotide molecule comprising, from 5' to 3', an amplification segment, a hybridization segment, and a reversibly terminating nucleotide, wherein the amplification segment is an RNA polymerase promoter.