mhurhangee/patent-ind-claim-en huggingface dataset:
A device for implanting in an opening in a septal wall in a heart of a patient, the device being configured to move from an elongated shape for delivery to a shortened and radially expanded shape for deployment, the device comprising a core segment defining a passage adapted to permit fluid to flow therethrough between the right and left atria, wherein the core segment is adapted to expand radially when the device moves from the elongated shape to the radially expanded shape, a distal flange comprising a plurality of distal flange segments adapted to extend distally and radially outwardly in the device's radially expanded shape from a central core segment to free ends, the distal flange segments being adapted to contact the septal wall in the left atrium of the heart in the radially expanded shape, and a proximal flange comprising a plurality of proximal flange segments, wherein the proximal flange segments each have first, second and third sections that are parallel when the device is in the elongated shape, the second section extending distally and radially outwardly from the first section in the radially expanded shape, the third section extending distally and radially inwardly from the second section to the core in the radially expanded shape, the proximal flange segments being adapted to contact the septal wall in the right atrium of the heart in the radially expanded shape, and in that the device further comprises a hub connected to the proximal ends of the first sections of the proximal flange segments and adapted to provide a releasable attachment point between the device and at least one of a delivery system and a retrieval system.
Device for compressing a low-pressure gas, which comprises: - at least one compression chamber comprising: - an inlet for low-pressure gas, - an outlet for high-pressure gas, - an inlet for fluid, - an outlet for fluid, and - a piston located between the gas inlet and outlet, on the one hand, and the fluid inlet and outlet, on the other hand; - a fluid movement means positioned on a fluid circuit connecting a fluid outlet and a fluid inlet of a compression chamber; - a means for measuring the gas pressure inside the compression chamber; and characterized in that it comprises a circuit to recirculate gas to the inlet of a compression chamber when the measured pressure is less than a predefined limit value. - at least one compression chamber comprising: - an inlet for low-pressure gas, - an outlet for high-pressure gas, - an inlet for fluid, - an outlet for fluid, and - a piston located between the gas inlet and outlet, on the one hand, and the fluid inlet and outlet, on the other hand; - an inlet for low-pressure gas, - an outlet for high-pressure gas, - an inlet for fluid, - an outlet for fluid, and - a piston located between the gas inlet and outlet, on the one hand, and the fluid inlet and outlet, on the other hand; - a fluid movement means positioned on a fluid circuit connecting a fluid outlet and a fluid inlet of a compression chamber; - a means for measuring the gas pressure inside the compression chamber; and
A User Equipment, UE, for a communication system in which resources can be dynamically allocated at each transmission time interval on a downlink control channel, the UE comprising: means for receiving control information, wherein the control information includes data within a Modulation and Coding Scheme, MCS field configured to be used to determine an MCS, and includes data within a resource block assignment field; and means for activating persistent scheduling in a case where the data within the MCS field is set to a specific bit pattern. means for receiving control information, wherein the control information includes data within a Modulation and Coding Scheme, MCS field configured to be used to determine an MCS, and includes data within a resource block assignment field; and means for activating persistent scheduling in a case where the data within the MCS field is set to a specific bit pattern.
A composite substrate , comprising: a first silicon carbide layer , wherein a material of the first silicon carbide layer comprises monocrystalline silicon carbide ; and a second silicon carbide layer , bonded to the first silicon carbide layer , wherein defect density of at least a part of the second silicon carbide layer is greater than defect density of the first silicon carbide layer , characterized in that the composite substrate further comprises a transition layer , the transition layer is located between the first silicon carbide layer and the second silicon carbide layer , and the first silicon carbide layer and the second silicon carbide layer are bonded by using the transition layer ; wherein a second bonding layer is formed by bonding the first silicon carbide layer to the transition layer , and a third bonding layer is formed by bonding the second silicon carbide layer to the transition layer ; and a sum of thicknesses of the transition layer , the second bonding layer , and the third bonding layer is less than or equal to 100 nm. a first silicon carbide layer , wherein a material of the first silicon carbide layer comprises monocrystalline silicon carbide ; and a second silicon carbide layer , bonded to the first silicon carbide layer , wherein defect density of at least a part of the second silicon carbide layer is greater than defect density of the first silicon carbide layer , characterized in that the composite substrate further comprises a transition layer , the transition layer is located between the first silicon carbide layer and the second silicon carbide layer , and the first silicon carbide layer and the second silicon carbide layer are bonded by using the transition layer ; wherein a second bonding layer is formed by bonding the first silicon carbide layer to the transition layer , and a third bonding layer is formed by bonding the second silicon carbide layer to the transition layer ; and
A method of characterizing a specimen contained within a specimen container , characterized in that it comprises: providing classified 2D data sets obtained by processing a plurality of 2D images of the specimen container containing a specimen taken by a plurality of cameras from multiple viewpoints, the classified 2D data sets being classified as: serum or plasma , settled blood portion , gel separator , air , tube , and label ; and forming a consolidated 3D model based upon a consolidated 3D data set obtained by correlating locations in the classified 2D data sets. providing classified 2D data sets obtained by processing a plurality of 2D images of the specimen container containing a specimen taken by a plurality of cameras from multiple viewpoints, the classified 2D data sets being classified as: serum or plasma , settled blood portion , gel separator , air , tube , and label ; serum or plasma , settled blood portion , gel separator , air , tube , and label ; and forming a consolidated 3D model based upon a consolidated 3D data set obtained by correlating locations in the classified 2D data sets.
An analog-to-digital conversion (ADC) stage for digitizing two or more analog signals, the ADC stage comprising: four or more switches configured to receive the two or more analog signals, wherein each of the four or more switches is configured to switch between the two or more analog signals to provide a first analog signal or at least a second analog signal of the two or more analog signals; four or more ADCs configured to respectively receive a corresponding one of the first analog signal and the at least second analog signal of the two or more analog signals, generate a first digitized signal from the first analog signal of the two or more analog signals, generate at least a second digitized signal from the at least second analog signal of the two or more analog signals to create two or more digitized signals, generate a first redundant digitized signal from the first analog signal, and generate a second redundant digitized signal from the second analog signal, with the first and second redundant digitized signals being generated in parallel with the two or more digitized signals; a processing device coupled to the four or more ADCs , with the processing device configured to generate first and second phase drift values from phase differences between the first and second redundant digitized signals and the two or more digitized signals and compensate the two or more digitized signals using the first and second phase drift values. four or more switches configured to receive the two or more analog signals, wherein each of the four or more switches is configured to switch between the two or more analog signals to provide a first analog signal or at least a second analog signal of the two or more analog signals; four or more ADCs configured to respectively receive a corresponding one of the first analog signal and the at least second analog signal of the two or more analog signals, generate a first digitized signal from the first analog signal of the two or more analog signals, generate at least a second digitized signal from the at least second analog signal of the two or more analog signals to create two or more digitized signals, generate a first redundant digitized signal from the first analog signal, and generate a second redundant digitized signal from the second analog signal, with the first and second redundant digitized signals being generated in parallel with the two or more digitized signals; a processing device coupled to the four or more ADCs , with the processing device configured to generate first and second phase drift values from phase differences between the first and second redundant digitized signals and the two or more digitized signals and compensate the two or more digitized signals using the first and second phase drift values.
A method for producing a biodegradable implant having a body containing predominantly iron, comprising the following steps: a) providing the body of the implant, b) incorporating hydrogen into at least a portion of the structure of the implant body near the surface by pickling by means of an acid, wherein following the pickling step for incorporating the hydrogen at least a portion of the implant body is immersed in an acidic to alkaline electrolyte system and is then connected to the cathode of a voltage source. a) providing the body of the implant, b) incorporating hydrogen into at least a portion of the structure of the implant body near the surface by pickling by means of an acid, wherein following the pickling step for incorporating the hydrogen at least a portion of the implant body is immersed in an acidic to alkaline electrolyte system and is then connected to the cathode of a voltage source.
A machine-to-machine, M2M, gateway , the M2M gateway comprising: a processor configured to: provide an M2M service capability (264; SC) interface that can be used to communicate with another M2M gateway; provide a common services layer to allow one or more M2M functionalities (GMDAE, RADAR, NCSS, HDR, SC, GMAE, MDGM, CB, MDGP) provided by one or more M2M service capabilities to be shared with the another M2M gateway using the M2M service capability interface; and route a request/ via the common services layer, between an M2M application and the one or more M2M service capabilities to allow the M2M application to use the one or more M2M functionalities, wherein the processor is configured to register the M2M gateway with the one or more M2M service capabilities via the another M2M gateway, and the processor is configured to access a resource belonging to the one or more M2M service capabilities via the another M2M gateway. provide an M2M service capability (264; SC) interface that can be used to communicate with another M2M gateway; provide a common services layer to allow one or more M2M functionalities (GMDAE, RADAR, NCSS, HDR, SC, GMAE, MDGM, CB, MDGP) provided by one or more M2M service capabilities to be shared with the another M2M gateway using the M2M service capability interface; and route a request/ via the common services layer, between an M2M application and the one or more M2M service capabilities to allow the M2M application to use the one or more M2M functionalities, wherein the processor is configured to register the M2M gateway with the one or more M2M service capabilities via the another M2M gateway, and the processor is configured to access a resource belonging to the one or more M2M service capabilities via the another M2M gateway.
A method of enhancing speech of a headphone user, the method comprising: receiving a primary signal (310;446) derived from at least one microphone (302;410;420) associated with the headphone, the primary signal configured to include a component of speech from the user; receiving, at an echo canceller (318;480), an echo reference signal representative of a combination of right and left playback signals , the right and left playback signals provided by an audio source to be rendered into an acoustic signal by an acoustic driver associated with the headphone, the echo reference signal being generated by combining and pre-filtering the right and left playback signals by means of a pre-filter and being provided to the echo canceller by the pre-filter; receiving, at noise canceller (314;440), a noise reference signal (312;448) representative of acoustic noise in the environment of the headphone; and filtering the primary signal to reduce components correlated to the noise reference signal and to reduce components correlated to the echo reference signal, to provide a voice estimate signal (326;462). receiving a primary signal (310;446) derived from at least one microphone (302;410;420) associated with the headphone, the primary signal configured to include a component of speech from the user; receiving, at an echo canceller (318;480), an echo reference signal representative of a combination of right and left playback signals , the right and left playback signals provided by an audio source to be rendered into an acoustic signal by an acoustic driver associated with the headphone, the echo reference signal being generated by combining and pre-filtering the right and left playback signals by means of a pre-filter and being provided to the echo canceller by the pre-filter; receiving, at noise canceller (314;440), a noise reference signal (312;448) representative of acoustic noise in the environment of the headphone; and filtering the primary signal to reduce components correlated to the noise reference signal and to reduce components correlated to the echo reference signal, to provide a voice estimate signal (326;462).
A method for automatically, with the aid of a processor, determining a surface degeneration of a first surface of a siphoning self-emptying measurement chamber of a urine measurement system , the first surface being intended to come into contact with urine, the method comprises the following main steps: a) repeatedly measuring one or more capacitive values of the first surface, forming capacitive measurements; b) storing all, or representative instants of the capacitive measurements; c) deciding, based on changes of the stored capacitive measurements, that a significant surface degeneration of the first surface has occurred, and wherein the deciding is performed by comparing the latest value with earlier values, such that a first lowest value measured during a first predetermined period, or a second lowest value measured during a second predetermined period, is compared to a latest lowest value measured during a latest period, wherein each period comprises at least one emptying procedure of the siphoning self-emptying measurement chamber , and if the latest lowest value is found to be higher by a predetermined amount than the first alternatively the second, lowest values, then it is decided that a significant surface degeneration of the first surface has occurred. a) repeatedly measuring one or more capacitive values of the first surface, forming capacitive measurements; b) storing all, or representative instants of the capacitive measurements; c) deciding, based on changes of the stored capacitive measurements, that a significant surface degeneration of the first surface has occurred, and wherein the deciding is performed by comparing the latest value with earlier values, such that a first lowest value measured during a first predetermined period, or a second lowest value measured during a second predetermined period, is compared to a latest lowest value measured during a latest period, wherein each period comprises at least one emptying procedure of the siphoning self-emptying measurement chamber , and if the latest lowest value is found to be higher by a predetermined amount than the first alternatively the second, lowest values, then it is decided that a significant surface degeneration of the first surface has occurred.
A system for cooling a thermal load, comprising: a reservoir configured to communicate a working fluid to a first heat exchanger boiler defining a first flow path , wherein the first heat exchanger is a first boiler configured to cool a first load ; a second heat exchanger defining a second flow path and configured to cool a second , different load; a first pump configured to selectively exhaust the working fluid from the first boiler to an ambient environment; and characterized in that the working fluid is communicated from the reservoir to the second heat exchanger . a reservoir configured to communicate a working fluid to a first heat exchanger boiler defining a first flow path , wherein the first heat exchanger is a first boiler configured to cool a first load ; a second heat exchanger defining a second flow path and configured to cool a second , different load; a first pump configured to selectively exhaust the working fluid from the first boiler to an ambient environment; and characterized in that the working fluid is communicated from the reservoir to the second heat exchanger .
Filter device having a filter housing in which is disposed a filter basket having passage holes , - wherein a filter inlet of the filter housing opens into an interior of the filter basket , and a filter outlet of the filter housing leads away from an outside of the filter basket , wherein the filter basket has a discharge opening which opens into a discharge opening of the filter housing , wherein the interior of the filter basket , by way of these discharge openings , is fluidically connected to a discharge line , wherein a discharge shut-off unit is disposed in the discharge line in such a way that a fluid (F) is able to be discharged from the interior of the filter basket by way of the discharge line by activating the discharge shut-off unit , characterized in that - the filter basket is aligned so as to be geodetically horizontal and in a region (B1), disposed geodetically at the bottom, does not have any passage holes ; and/or - the discharge opening of the filter basket is a hole in a circumferential wall of the filter basket . - wherein a filter inlet of the filter housing opens into an interior of the filter basket , and a filter outlet of the filter housing leads away from an outside of the filter basket , wherein the filter basket has a discharge opening which opens into a discharge opening of the filter housing , wherein the interior of the filter basket , by way of these discharge openings , is fluidically connected to a discharge line , wherein a discharge shut-off unit is disposed in the discharge line in such a way that a fluid (F) is able to be discharged from the interior of the filter basket by way of the discharge line by activating the discharge shut-off unit , characterized in that - the filter basket is aligned so as to be geodetically horizontal and in a region (B1), disposed geodetically at the bottom, does not have any passage holes ; and/or - the discharge opening of the filter basket is a hole in a circumferential wall of the filter basket . - the filter basket is aligned so as to be geodetically horizontal and in a region (B1), disposed geodetically at the bottom, does not have any passage holes ; and/or - the discharge opening of the filter basket is a hole in a circumferential wall of the filter basket .
A method in a UE, the method comprising: receiving one or more paging occasion configurations in a system information block; determining a paging frame and a paging occasion identity within the paging frame based on one or more of: a UE identity and a discontinuous reception cycle length; selecting a paging occasion configuration from the received one or more paging occasion configurations, wherein the selected paging occasion configuration is associated with the determined paging occasion identity; determining a paging slot and a paging symbol within the determined paging slot based on the selected paging occasion configuration, wherein the paging slot and a paging symbol within the determined paging slot in the paging frame are determined using a group offset being selected based on a value of a first subcarrier spacing, slot increment step and a slot offset indicated by the selected paging occasion configuration; and decoding a physical downlink control channel "PDCCH" carrying paging downlink control information "DCI" on the determined paging symbol within the determined paging slot of the determined paging frame. receiving one or more paging occasion configurations in a system information block; determining a paging frame and a paging occasion identity within the paging frame based on one or more of: a UE identity and a discontinuous reception cycle length; selecting a paging occasion configuration from the received one or more paging occasion configurations, wherein the selected paging occasion configuration is associated with the determined paging occasion identity; determining a paging slot and a paging symbol within the determined paging slot based on the selected paging occasion configuration, wherein the paging slot and a paging symbol within the determined paging slot in the paging frame are determined using a group offset being selected based on a value of a first subcarrier spacing, slot increment step and a slot offset indicated by the selected paging occasion configuration; and decoding a physical downlink control channel "PDCCH" carrying paging downlink control information "DCI" on the determined paging symbol within the determined paging slot of the determined paging frame.
A polymer of Formula (I) wherein: R 1 , R 2 , R 3 , and R 6 are each independently selected from H and C 1-6 alkyl; R 4 and R 5 are each independently selected from H, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, and C 1-6 haloalkoxy; X is a multivalent linker selected from L 1 is each independently -C 1-4 alkylene-O-; n is each independently an integer from 0 to 10,000, provided that the sum of all n in Formula (I) is not 0; and m is 4. R 1 , R 2 , R 3 , and R 6 are each independently selected from H and C 1-6 alkyl; R 4 and R 5 are each independently selected from H, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkoxy, and C 1-6 haloalkoxy; X is a multivalent linker selected from L 1 is each independently -C 1-4 alkylene-O-; n is each independently an integer from 0 to 10,000, provided that the sum of all n in Formula (I) is not 0; and m is 4.
Method for providing feedback to a patient with regard to his/her breathing during radiotherapy, in particular in respiratory gating, wherein the patient is located in a room, wherein by means of room signals information is transmitted to the patient relating to his/her current breathing state and/or treatment instructions with regard to his/her breathing are transmitted, characterised in that the room signals are room light, in particular room colour(s), and/or a change of the brightness of a room light.