mhurhangee/ep-ind-claims huggingface dataset:
Cable support (6,7,8) for distribution boxes, in particular for FTTH environments, the cable support (6,7,8) comprising at least one cable passage (6d,7d,8d), the at least one cable passage (6d,7d,8d) adapted to receive at least one cable, wherein the cable support is a stackable modular assembly of at least two segment blocks (6a,6b,6c,7a,7b,7c,8a,8b,8c), each of which form, at a respective end (31,32) thereof pointing in or against a stacking direction, a part of the at least one cable passage (6d, 7d, 8d), wherein at least one end (31,32) of a segment block (6a,6b,6c,7a,7b,7c,8a,8b,8c) comprises at least one positive locking member (23,26), the positive locking member (23,26) being formed complementary to a positive locking member (23,26) at an end (31,32) of another segment block (6a,6b,6c,7a,7b,7c,8a,8b,8c); characterized in that the cable support and each segment block (6a,6b,6c,7a,7b,7c,8a,8b,8c) is provided with access openings for inserting a rod-like dismounting tool, the access openings of adjacent segments blocks (6a,6b,6c,7a,7b,7c,8a,8b,8c) of the cable support are aligned with each other such that the dismounting tool may be inserted along an access axis extending parallel to the stacking direction, the positive locking member including at least one resiliently deflectable latch member is located on the access axis, so that by inserting a dismounting tool into the cable support, the positive lock between the positive locking member and the complementary at least one resiliently deflectable latch member is released.
A method implemented by a processor of an electronic device for adjusting sensitivity of an associated proximity sensor, the proximity sensor positioned biased towards a longitudinal side of the electronic device, the electronic device having an orientation sensor for generating orientation data based on an orientation of the electronic device, the method comprising: obtaining orientation data from the orientation sensor; increasing the sensitivity of the proximity sensor when the orientation of the electronic device is at a first tilted orientation based on the orientation data; and decreasing the sensitivity of the proximity sensor when the orientation of the electronic device is at a second tilted orientation based on the orientation data, wherein the first tilted orientation corresponds to the device being held at a first side of the head of a user of the electronic device and the second tilted orientation corresponds to the device being held at a second side of the head of the user. obtaining orientation data from the orientation sensor; increasing the sensitivity of the proximity sensor when the orientation of the electronic device is at a first tilted orientation based on the orientation data; and decreasing the sensitivity of the proximity sensor when the orientation of the electronic device is at a second tilted orientation based on the orientation data, wherein the first tilted orientation corresponds to the device being held at a first side of the head of a user of the electronic device and the second tilted orientation corresponds to the device being held at a second side of the head of the user.
A flexible directional warning light for mounting atop flat or curved vehicle surfaces when the light is in its respective unflexed or flexed positions, the light comprising: a flexible optic having multiple optical elements along a longitudinal axis from which the light is configured to flex; a flexible backing matable with the flexible optic to encase electrical components of electrical circuitry and characterized in that the light further comprises a segmented heatsink, the segmented heatsink having multiple portions sized to fit in the flexible backing; and the electrical circuitry is encompassed by the flexible optic and backing such that a first side of the circuitry confronts the segmented heatsink and a second side of the circuitry confronts the flexible optic. a flexible optic having multiple optical elements along a longitudinal axis from which the light is configured to flex; a flexible backing matable with the flexible optic to encase electrical components of electrical circuitry and characterized in that the light further comprises a segmented heatsink, the segmented heatsink having multiple portions sized to fit in the flexible backing; and the electrical circuitry is encompassed by the flexible optic and backing such that a first side of the circuitry confronts the segmented heatsink and a second side of the circuitry confronts the flexible optic.
Hair mousse compositions comprising - one or more setting polymers, wherein the polymer(s) comprise vinylpyrrolidone monomers, - one or more cellulose mixed ethers, - one or more ester quats(s), wherein the ester quat(s) has/have a propylamine structural unit and - water, wherein the setting polymer(s) comprising a vinylpyrrolidone monomer are selected from the group of polyvinylpyrrolidones and VP/VA copolymer. - one or more setting polymers, wherein the polymer(s) comprise vinylpyrrolidone monomers, - one or more cellulose mixed ethers, - one or more ester quats(s), wherein the ester quat(s) has/have a propylamine structural unit and - water,
A system (200, 300) for maintaining airflow into a flight deck (112, 202, 302) of an aircraft, the system (200, 300) comprising: a plurality of air sources, wherein each air source is configured to direct airflow towards occupancy areas of the aircraft; a control valve configured to enable and disable airflow from entering into the flight deck (112, 202, 302); and a computing system (201, 301) configured to: detect a decrease in a level of airflow entering into the flight deck (112, 202, 302) such that the level of airflow is below a threshold level, wherein a flow sensor (206, 306) is used for detecting that the level of airflow entering into the flight deck is below the threshold level; based on detecting the decrease in the level of airflow entering into the flight deck (112, 202, 302), adjust the control valve to cause an increase in the level of airflow entering into the flight deck (112, 202, 302); detect, using a sensor, noxious gas in a cabin (110, 204, 304) of the aircraft; and based on detecting the noxious gas in the cabin (110, 204, 304), adjust a particular control valve to prevent airflow from entering into the flight deck (112, 202, 302) from the cabin (110, 204, 304). a plurality of air sources, wherein each air source is configured to direct airflow towards occupancy areas of the aircraft; a control valve configured to enable and disable airflow from entering into the flight deck (112, 202, 302); and a computing system (201, 301) configured to: detect a decrease in a level of airflow entering into the flight deck (112, 202, 302) such that the level of airflow is below a threshold level, wherein a flow sensor (206, 306) is used for detecting that the level of airflow entering into the flight deck is below the threshold level; based on detecting the decrease in the level of airflow entering into the flight deck (112, 202, 302), adjust the control valve to cause an increase in the level of airflow entering into the flight deck (112, 202, 302); detect, using a sensor, noxious gas in a cabin (110, 204, 304) of the aircraft; and based on detecting the noxious gas in the cabin (110, 204, 304), adjust a particular control valve to prevent airflow from entering into the flight deck (112, 202, 302) from the cabin (110, 204, 304). detect a decrease in a level of airflow entering into the flight deck (112, 202, 302) such that the level of airflow is below a threshold level, wherein a flow sensor (206, 306) is used for detecting that the level of airflow entering into the flight deck is below the threshold level; based on detecting the decrease in the level of airflow entering into the flight deck (112, 202, 302), adjust the control valve to cause an increase in the level of airflow entering into the flight deck (112, 202, 302); detect, using a sensor, noxious gas in a cabin (110, 204, 304) of the aircraft; and based on detecting the noxious gas in the cabin (110, 204, 304), adjust a particular control valve to prevent airflow from entering into the flight deck (112, 202, 302) from the cabin (110, 204, 304).
A circuit for amplifying an input signal comprising: a plurality of couplers, wherein a splitting coupler (254,304, 354) of the plurality of couplers receives the input signal and a combining coupler (264,322,370) of the plurality of couplers provides an output signal; and N number of amplifiers (252,302, 352) to amplify the input signal, wherein N is an integer greater than two, and N does not equal 2 K, where K is an integer greater than or equal to two; wherein at least one of the plurality of couplers comprises a hybrid coupler that has two ports terminated into substantially equal reactances. a plurality of couplers, wherein a splitting coupler (254,304, 354) of the plurality of couplers receives the input signal and a combining coupler (264,322,370) of the plurality of couplers provides an output signal; and N number of amplifiers (252,302, 352) to amplify the input signal, wherein N is an integer greater than two, and N does not equal 2 K, where K is an integer greater than or equal to two; wherein at least one of the plurality of couplers comprises a hybrid coupler that has two ports terminated into substantially equal reactances.
A signal reception apparatus, comprising: a first receiving unit configured to receive from a network device, a first signal containing first control information at a first time domain resource section based on an assumption that the network device uses a first transmission configuration indication, TCI, state; and a second receiving unit configured to receive from the network device, a second signal at a second time domain resource section based on an assumption that the network device uses a second transmission configuration indication state, a starting position of the second time domain resource section being determined according to a reference time domain resource section, the reference time domain resource section being related to the first control information and the reference time domain resource section being predefined or preconfigured; the signal reception apparatus being characterized in that the reference time domain resource section is a time domain resource unit at a last position in a control resource set where the first control information is located on a time axis. a first receiving unit configured to receive from a network device, a first signal containing first control information at a first time domain resource section based on an assumption that the network device uses a first transmission configuration indication, TCI, state; and a second receiving unit configured to receive from the network device, a second signal at a second time domain resource section based on an assumption that the network device uses a second transmission configuration indication state, a starting position of the second time domain resource section being determined according to a reference time domain resource section, the reference time domain resource section being related to the first control information and the reference time domain resource section being predefined or preconfigured; the signal reception apparatus being characterized in that the reference time domain resource section is a time domain resource unit at a last position in a control resource set where the first control information is located on a time axis.
A device for medical imaging of coronary vessels, the device comprising: - a data extracting module configured to extract a first vessel map from computed tomography angiography data covering at least one reference cardiac phase and a set of second vessel maps from three-dimensional rotational angiography data covering at least one cardiac cycle; - an interpolation module configured to generate a series of warped versions of the first vessel map, the series being aligned with the set of second vessel maps and starting at the at least one reference cardiac phase; and - a merging module configured to merge the series and the set of second vessel maps at the different phases in order to generate a final imaging map of the coronary vessels. - a data extracting module configured to extract a first vessel map from computed tomography angiography data covering at least one reference cardiac phase and a set of second vessel maps from three-dimensional rotational angiography data covering at least one cardiac cycle; - an interpolation module configured to generate a series of warped versions of the first vessel map, the series being aligned with the set of second vessel maps and starting at the at least one reference cardiac phase; and - a merging module configured to merge the series and the set of second vessel maps at the different phases in order to generate a final imaging map of the coronary vessels.
A method for stacking sheets received from a printer by means of a sheet flipping device comprising at least one slot (16, 17) for receiving a leading portion of a sheet, the method comprising the steps of: - determining a respective insertion depth parameter for a first and a second sheet, wherein the second sheet has a greater stiffness than the first sheet; - inserting a length of the first sheet into at the least one slot (16, 17) in correspondence with its respective insertion depth parameter, followed by flipping said first sheet; - inserting a length of the second sheet into at the least one slot (16, 17) in correspondence with its respective insertion depth parameter, followed by flipping said second sheet, wherein the inserted length of the first sheet is greater than that of the second sheet. - determining a respective insertion depth parameter for a first and a second sheet, wherein the second sheet has a greater stiffness than the first sheet; - inserting a length of the first sheet into at the least one slot (16, 17) in correspondence with its respective insertion depth parameter, followed by flipping said first sheet; - inserting a length of the second sheet into at the least one slot (16, 17) in correspondence with its respective insertion depth parameter, followed by flipping said second sheet, wherein the inserted length of the first sheet is greater than that of the second sheet.
Apparatus for adjusting the height of a mould of a tyre curing press, in the case of which apparatus the mould consists of at least two mould parts (80, 70) which can be positioned relative to one another, the apparatus realizing a linear movement path, and in the case of which apparatus at least two fluid cylinders are arranged as a linear drive for a lower mould part, and a guide element is arranged as a linear guide, and at least one locking apparatus which corresponds with the guide element is arranged, and in the case of which apparatus the guide element is tubular, characterized in that the guide element can be fixed in at least one axial position, and in that the locking apparatus is formed substantially by way of a ring, having at least one pin, which ring is positioned and oriented relative to the guide element in such a way that the ring can be rotated at least partially around the guide element by way of a pivoting drive, and in the case of which apparatus a sensor is arranged for monitoring the position of the ring.
A method (100, 200) for correction of a periodic signal error of a position signal relating to a relative position of at least one sensor with respect to a reference, the method comprising - storing a set of time stamped relative positions with respect to the reference based on measurements of the position signal over a duration of one period of the periodic signal error, - updating the stored set of time stamped relative positions based on a moving time window, wherein the time window has a width corresponding to the duration of the one period of the periodic signal error, - determining a set of parameter values of a parameterized approximation of a corrected relative position with respect to time, based on the stored time stamped relative positions over a duration of one period of the periodic signal error of the position signal, and - estimating a first corrected relative position at a first time based on the parameterized approximation using the determined set of parameter values and the first time. - storing a set of time stamped relative positions with respect to the reference based on measurements of the position signal over a duration of one period of the periodic signal error, - updating the stored set of time stamped relative positions based on a moving time window, wherein the time window has a width corresponding to the duration of the one period of the periodic signal error, - determining a set of parameter values of a parameterized approximation of a corrected relative position with respect to time, based on the stored time stamped relative positions over a duration of one period of the periodic signal error of the position signal, and - estimating a first corrected relative position at a first time based on the parameterized approximation using the determined set of parameter values and the first time.
A method implemented at least in part by a computer, the method comprising: reading, by an application data: comprising blocks from a store, the data having one or more redundant copies obtainable from a storage system that hosts the store; obtaining, by said application a checksum corresponding to the data, the checksum being additional to a storage checksum, if any, maintained by the storage system; determining, by said application that the data is corrupted data via the checksum; the method being characterised by comprising: verifying, by said application that a block of the corrupted data has not been changed since the block was read by the application; reading and validating, by said application, the block to see if the data is still corrupted, if the block has been changed; and sending, by said application, an instruction to correct the block to a file system, if the data is corrupted. reading, by an application data: comprising blocks from a store, the data having one or more redundant copies obtainable from a storage system that hosts the store; obtaining, by said application a checksum corresponding to the data, the checksum being additional to a storage checksum, if any, maintained by the storage system; determining, by said application that the data is corrupted data via the checksum; the method being characterised by comprising: verifying, by said application that a block of the corrupted data has not been changed since the block was read by the application; reading and validating, by said application, the block to see if the data is still corrupted, if the block has been changed; and sending, by said application, an instruction to correct the block to a file system, if the data is corrupted. verifying, by said application that a block of the corrupted data has not been changed since the block was read by the application; reading and validating, by said application, the block to see if the data is still corrupted, if the block has been changed; and sending, by said application, an instruction to correct the block to a file system, if the data is corrupted.
A bearing with a magnetic fluid seal, wherein a plurality of rolling elements are interposed between an inner ring and an outer ring, and a ring-shaped magnet is arranged at an opening side of the inner and outer rings so as to retain magnetic fluid for sealing the plurality of rolling elements, and wherein the ring-shaped magnet is magnetized such that magnetic poles are oriented in an axial direction, the bearing comprising: a ring-shaped pole plate arranged so as to be in contact with an outer side surface of the ring-shaped magnet in the axial direction characterised in that it further comprises an outer-ring-side magnetic fluid retained at least between the outer ring and the ring-shaped magnet; and inner-ring-side magnetic fluid retained at least between the inner ring and the ring-shaped pole plate. a ring-shaped pole plate arranged so as to be in contact with an outer side surface of the ring-shaped magnet in the axial direction characterised in that it further comprises an outer-ring-side magnetic fluid retained at least between the outer ring and the ring-shaped magnet; and inner-ring-side magnetic fluid retained at least between the inner ring and the ring-shaped pole plate. an outer-ring-side magnetic fluid retained at least between the outer ring and the ring-shaped magnet; and inner-ring-side magnetic fluid retained at least between the inner ring and the ring-shaped pole plate.
An IV access device comprising: a catheter adapter having a proximal end and a distal end and a sidewall forming a lumen that extends therebetween; a catheter that extends from the distal end; a side port that extends outwardly from the sidewall of the catheter adapter, the side port being in fluid communication with the lumen of the catheter adapter; and a flow diverting feature configured to divert fluid flowing through the side port and into the lumen in a proximal direction, wherein the flow diverting feature comprises a protrusion from a sidewall of the side port, characterized in that the protrusion has a face that is oriented generally perpendicular with respect to the sidewall of the side port, wherein a cross-section of the face is planar. a catheter adapter having a proximal end and a distal end and a sidewall forming a lumen that extends therebetween; a catheter that extends from the distal end; a side port that extends outwardly from the sidewall of the catheter adapter, the side port being in fluid communication with the lumen of the catheter adapter; and a flow diverting feature configured to divert fluid flowing through the side port and into the lumen in a proximal direction, wherein the flow diverting feature comprises a protrusion from a sidewall of the side port, characterized in that the protrusion has a face that is oriented generally perpendicular with respect to the sidewall of the side port, wherein a cross-section of the face is planar.
A method for manufacturing an aerogel blanket, the method comprising: mixing a precursor material, an acid catalyst, and a hydrous alcohol to prepare a sol; depositing a substrate in the sol and reacting with a gaseous silazane-based compound to form a gel and to perform aging and surface modification reaction simultaneously to form a wet gel blanket; and drying the wet gel blanket to manufacture an aerogel blanket. mixing a precursor material, an acid catalyst, and a hydrous alcohol to prepare a sol; depositing a substrate in the sol and reacting with a gaseous silazane-based compound to form a gel and to perform aging and surface modification reaction simultaneously to form a wet gel blanket; and drying the wet gel blanket to manufacture an aerogel blanket.