mhurhangee/ep-ind-claims huggingface dataset:
An insertion tool for inserting a catheter into a body of a patient, comprising: a housing in which the catheter is partially initially disposed; an at least partially hollow needle distally extending from the housing, at least a portion of the catheter pre-disposed over the needle; a guidewire pre-disposed within the needle; an advancement assembly for selectively advancing the guidewire distally past a distal end of the needle in preparation for distal advancement of the catheter; and a catheter advancement assembly comprising a handle coupled to a proximal end of the catheter, the handle extending from the housing and slidable with respect to the housing to transition the catheter distally from a first position to a second position.
Steering shaft for a motor vehicle steering system for use with a steering assistance means (112, 114, 116), comprising an output shaft and comprising a carrier which is connected rotationally conjointly to the output shaft, on the radially outer region of which carrier there is provided a worm gear toothing composed of plastic for forming a worm gear for connection to the steering assistance means (112, 114, 116), and which is formed in one piece with the output shaft, characterized in that the output shaft comprises a toothing for engagement into a corresponding toothing of a toothed rack.
An Induction heating apparatus for heating workpieces moving through said apparatus, comprising a housing, a tube in said housing defining a generally enclosed space in said housing through which the workpieces travel as they move through said apparatus, said tube having an inlet end for receiving workpieces and an outlet end for discharging workpieces, an induction coil for heating the workpieces as they move through said enclosed space, and a fan, characterised in that the apparatus includes an air inlet in said tube for enabling air to flow into said enclosed space and an air outlet in said tube for enabling air to flow out of said enclosed space to the exterior of said housing, and the fan being operative to move air through said enclosed space between said air inlet and said air outlet, and in that said air inlet in said tube enables air to flow from the interior of said housing into said enclosed space.
A sending method, comprising: Receiving, by a sending apparatus, first indication information for uplink data transmission, wherein the first indication information is used to indicate a frequency resource for the uplink data transmission, and the frequency resource comprises N subcarriers; and sending, by the sending apparatus, an uplink reference signal associated with the uplink data transmission, wherein a length of a sequence of the uplink reference signal is M; wherein a frequency resource occupied by the sequence of the uplink reference signal is M intermediate subcarriers of the N subcarriers, and characterized in that: a roll-off factor of a filter for the uplink data transmission is not greater than 2 M N − 1, and N / 2 ≤ M < N, wherein N is a positive integer, and M is a positive integer, Receiving, by a sending apparatus, first indication information for uplink data transmission, wherein the first indication information is used to indicate a frequency resource for the uplink data transmission, and the frequency resource comprises N subcarriers; and sending, by the sending apparatus, an uplink reference signal associated with the uplink data transmission, wherein a length of a sequence of the uplink reference signal is M; wherein a frequency resource occupied by the sequence of the uplink reference signal is M intermediate subcarriers of the N subcarriers, and characterized in that: a roll-off factor of a filter for the uplink data transmission is not greater than 2 M N − 1, and N / 2 ≤ M < N, wherein N is a positive integer, and M is a positive integer,
A composition comprising (a) milk or a crude protein-containing extract thereof; (b) an unsaturated fatty acid having 18 carbon atoms or a salt thereof; and (c) an acidifying agent in an amount that is sufficient to reduce the pH of the composition to less than 4; wherein the composition has been heat-treated. (a) milk or a crude protein-containing extract thereof; (b) an unsaturated fatty acid having 18 carbon atoms or a salt thereof; and (c) an acidifying agent in an amount that is sufficient to reduce the pH of the composition to less than 4; wherein the composition has been heat-treated.
Multisource thermal system comprising: - a first thermal source; - at least a second thermal source; - at least a first thermal exchange plant (4; 101); - a switch valve (5; 105) designed to selectively connect in series the first thermal source and/or the second thermal source and at least the first thermal exchange plant (4; 101); wherein the switch valve (5; 105) comprises a fixed outer element (10; 120) extending along a main axis (A; B) and an inner element (12; 121) movable inside the outer element (10; 120); the outer element (10; 120) and the inner element (12; 121) being respectively provided with a plurality of outer openings (11; 125) and with a plurality of inner openings (14; 126); the system being characterized by the fact that the inner element (12; 121) comprises at least one septum (15; 128, 129) designed to define a first chamber (16; 130) and a second chamber (17; 131), not directly communicating; wherein the septum (15; 128, 129) intersects transversally the main axis (A; B). - a first thermal source; - at least a second thermal source; - at least a first thermal exchange plant (4; 101); - a switch valve (5; 105) designed to selectively connect in series the first thermal source and/or the second thermal source and at least the first thermal exchange plant (4; 101); wherein the switch valve (5; 105) comprises a fixed outer element (10; 120) extending along a main axis (A; B) and an inner element (12; 121) movable inside the outer element (10; 120); the outer element (10; 120) and the inner element (12; 121) being respectively provided with a plurality of outer openings (11; 125) and with a plurality of inner openings (14; 126);
Grease composition containing from 30 to 95 wt.% of a base oil and from 0.5 wt.% to 15 wt.% of an aluminium complex soap as a thickening agent, wherein the composition further includes as additives (i) 1 to 15 wt.% graphite, (ii) 3 to 15 wt.% molybdenum disulphide, (iii) 1 to 15 wt.% calcium carbonate and (iv) 0.1 to 15 wt.% bismuth sulphide; where wt.% is given based upon the total weight of the grease composition.
A computer-implemented method of monitoring, by a computer processing unit, a graphics processing unit of a host computer system, the method comprising: monitoring one or more host computer system application commands to the GPU for a test interval; identifying one or more subsystems of the GPU that cannot be instructed directly by host computer system application commands as being unexposed subsystems; and determining whether unexposed subsystems are active, wherein the at least one subsystem command to the GPU is further directed to unexposed subsystems determined to be active, wherein the step of determining whether unexposed subsystems are active comprises: retrieving a GPU state for an unexposed subsystem; and if the GPU state does not correspond to an expected GPU state, identifying the unexposed subsystem as being active; the CPU providing (310, 410, 510, 610) sample rendering data and at least one subsystem command to a subsystem of the GPU; the CPU receiving (320, 420, 620) at least one test result generated by the GPU having executed the at least one subsystem command on the sample rendering data in response to providing the sample rendering data and the at least one subsystem command to the GPU; the CPU determining (330, 430, 630) if the at least one test result does not correspond with at least one expected result corresponding to the sample rendering data and the at least one subsystem command; and if the at least one test result does not correspond to the at least one expected result, the CPU identifying the at least one subsystem as having ceased to operate as expected. monitoring one or more host computer system application commands to the GPU for a test interval; identifying one or more subsystems of the GPU that cannot be instructed directly by host computer system application commands as being unexposed subsystems; and determining whether unexposed subsystems are active, wherein the at least one subsystem command to the GPU is further directed to unexposed subsystems determined to be active, wherein the step of determining whether unexposed subsystems are active comprises: retrieving a GPU state for an unexposed subsystem; and if the GPU state does not correspond to an expected GPU state, identifying the unexposed subsystem as being active; the CPU providing (310, 410, 510, 610) sample rendering data and at least one subsystem command to a subsystem of the GPU; the CPU receiving (320, 420, 620) at least one test result generated by the GPU having executed the at least one subsystem command on the sample rendering data in response to providing the sample rendering data and the at least one subsystem command to the GPU; the CPU determining (330, 430, 630) if the at least one test result does not correspond with at least one expected result corresponding to the sample rendering data and the at least one subsystem command; and
A battery pack, comprising a container having a base and sidewalls that protrude from the base in a direction normal to the base, each sidewall having a fixed end that is secured to the base and a free end opposed to the fixed end, the free ends of the sidewalls together defining an open end of the container, a lid that is configured to close the open end of the container, the lid including a container-facing surface and an outward-facing surface that is opposed to the container-facing surface, and cells disposed in the container, the cells oriented within the container such that a lid-facing surface of each cell is parallel to a plane that includes the free ends, wherein the lid includes an outer pin and an inner pin that are configured to restrain the motion of the cells, the outer pin and the inner pin each protrude from the container-facing surface and have a distal end that is spaced apart from the container-facing surface, and the outer pin and the inner pin have unequal lengths, where a length of the outer and inner pins (50, 60) corresponds to a distance of the respective distal end from the container-facing surface. a container having a base and sidewalls that protrude from the base in a direction normal to the base, each sidewall having a fixed end that is secured to the base and a free end opposed to the fixed end, the free ends of the sidewalls together defining an open end of the container, a lid that is configured to close the open end of the container, the lid including a container-facing surface and an outward-facing surface that is opposed to the container-facing surface, and cells disposed in the container, the cells oriented within the container such that a lid-facing surface of each cell is parallel to a plane that includes the free ends, wherein the lid includes an outer pin and an inner pin that are configured to restrain the motion of the cells, the outer pin and the inner pin each protrude from the container-facing surface and have a distal end that is spaced apart from the container-facing surface, and the outer pin and the inner pin have unequal lengths, where a length of the outer and inner pins (50, 60) corresponds to a distance of the respective distal end from the container-facing surface.
A method for controlling communication of audio and/or video streams in a Universal Serial Bus, USB, system, comprising: receiving variably-sized packets containing audio and/or video data at a USB driver in a first processor; assembling packets of uniform-size at the first processor based on the variably sized packets received, wherein assembling packets of uniform size comprises calculating a size of the packets of uniform size using a USB bus frequency and a number of samples per variably sized packet; and passing the packets of uniform size to a second processor, wherein said second processor is an application processor wherein said packets of uniform size are useable by applications at an application layer in a protocol stack of the second processor. receiving variably-sized packets containing audio and/or video data at a USB driver in a first processor; assembling packets of uniform-size at the first processor based on the variably sized packets received, wherein assembling packets of uniform size comprises calculating a size of the packets of uniform size using a USB bus frequency and a number of samples per variably sized packet; and passing the packets of uniform size to a second processor, wherein said second processor is an application processor wherein said packets of uniform size are useable by applications at an application layer in a protocol stack of the second processor.
A non-transitory computer readable storage medium having stored thereon instructions that, when executed, cause at least one computing device to: receive first image data from an image sensor located on an instrument, the instrument configured to be driven through a luminal network of a patient; determine a location of the instrument based on data received from one or more location sensors; detect a set of one or more points of interest (1310A, 1320A) in the first image data; identify a set of first locations respectively corresponding to a set of points in the first image data; receive second image data from the image sensor; detect a set of one or more points of interest (1310B, 1310B) in the second image data; identify a set of second locations respectively corresponding to the set of points in the second image data, wherein the set of points in the second image data corresponds to the set of points in the first image data; based on the set of first locations and the set of second locations and in response to determining that the location of the instrument based on data received from one or more location sensors is substantially stationary, detecting a change of location of the instrument within the luminal network caused by movement of the luminal network relative to the instrument; and generate an alert to indicate that there may be uncompensated error in the determined location of the instrument due to movement of the luminal network relative to the instrument. receive first image data from an image sensor located on an instrument, the instrument configured to be driven through a luminal network of a patient; determine a location of the instrument based on data received from one or more location sensors; detect a set of one or more points of interest (1310A, 1320A) in the first image data; identify a set of first locations respectively corresponding to a set of points in the first image data; receive second image data from the image sensor; detect a set of one or more points of interest (1310B, 1310B) in the second image data; identify a set of second locations respectively corresponding to the set of points in the second image data, wherein the set of points in the second image data corresponds to the set of points in the first image data; based on the set of first locations and the set of second locations and in response to determining that the location of the instrument based on data received from one or more location sensors is substantially stationary, detecting a change of location of the instrument within the luminal network caused by movement of the luminal network relative to the instrument; and generate an alert to indicate that there may be uncompensated error in the determined location of the instrument due to movement of the luminal network relative to the instrument.
An imaging device comprising: a casing; two wide-angle lens systems (A and B) held by the casing; and a communication antenna held by the casing, wherein the casing includes a metal casing (20, 30) and a resin casing (70, 80, 90), the metal casing (20, 30) having a rigidity greater than a rigidity of the resin casing (70, 80, 90), and the two wide-angle lens systems (A and B) are held by the metal casing (20, 30) and the communication antenna is held by the resin casing (70, 80, 90), wherein the two wide-angle lens systems (A and B) are arranged symmetrical to each other, wherein the communication antenna is disposed in an area outside an optical path of light of a maximum angle of view of each of the two wide-angle lens systems (A and B), the metal casing (20, 30) has a grip at a lower portion and an opening at an upper portion, and the resin casing (70, 80, 90) is disposed to cover the opening of the metal casing (20, 30), wherein the communication antenna is embedded in the resin casing (70, 80, 90) that is configured to cover the opening a casing; two wide-angle lens systems (A and B) held by the casing; and a communication antenna held by the casing, wherein the casing includes a metal casing (20, 30) and a resin casing (70, 80, 90), the metal casing (20, 30) having a rigidity greater than a rigidity of the resin casing (70, 80, 90), and the two wide-angle lens systems (A and B) are held by the metal casing (20, 30) and the communication antenna is held by the resin casing (70, 80, 90), wherein the two wide-angle lens systems (A and B) are arranged symmetrical to each other, wherein the communication antenna is disposed in an area outside an optical path of light of a maximum angle of view of each of the two wide-angle lens systems (A and B), the metal casing (20, 30) has a grip at a lower portion and an opening at an upper portion, and the resin casing (70, 80, 90) is disposed to cover the opening of the metal casing (20, 30), wherein the communication antenna is embedded in the resin casing (70, 80, 90) that is configured to cover the opening
Support assembly for a trailer coupling or a load carrier, including a cross-member (11; 111; 211; 311) and with side members (12; 112; 212; 312) connected to the cross-member (11; 111; 211; 311) for fitting to a rear of a body of a vehicle, together with at least one holder (15; 215; 315) fitted to the cross-member (11; 111; 211; 311) for a trailer coupling or for a coupling part of a load carrier, wherein the support assembly (10; 110; 210) has at least one carrier part in the form of a multi-component part which includes a base body (16; 116; 216, 316) and a reinforcing body connected to the base body (16; 116; 216, 316) and having a rib structure (30; 230; 330) and/or a foam body of technical foam, characterised in that the base body (16; 116; 216, 316) is designed as a locating body in which the reinforcing body is held with positive fitting.
An method for controlling uplink power, comprising: calculating, by a user equipment, an aggregate path loss according to uplink path losses on paths between the user equipment and transceivers; and calculating, by the user equipment, an uplink transmit power according to the aggregate path loss; characterized in that before calculating the aggregate path loss, the method comprises: sending, by the user equipment, uplink test signaling to selected transceivers for serving the user equipment, so that the transceivers calculate a receive power of the uplink test signaling by testing the uplink test signaling; receiving, by the user equipment, the receive power of the uplink test signaling and a transmit power of a common reference signal CRS from the transceivers, wherein the transmit power of the CRS is transmit power of a CRS sent by the transceivers to the user equipment; receiving and testing, by the user equipment, the CRS sent by the transceivers to obtain a receive power of the CRS; calculating, by the user equipment, uplink path losses on paths between the user equipment and the transceivers according to the receive power of the uplink test signaling, the transmit power of the CRS, and the receive power of the CRS. sending, by the user equipment, uplink test signaling to selected transceivers for serving the user equipment, so that the transceivers calculate a receive power of the uplink test signaling by testing the uplink test signaling; receiving, by the user equipment, the receive power of the uplink test signaling and a transmit power of a common reference signal CRS from the transceivers, wherein the transmit power of the CRS is transmit power of a CRS sent by the transceivers to the user equipment; receiving and testing, by the user equipment, the CRS sent by the transceivers to obtain a receive power of the CRS; calculating, by the user equipment, uplink path losses on paths between the user equipment and the transceivers according to the receive power of the uplink test signaling, the transmit power of the CRS, and the receive power of the CRS.
A system, comprising: a host processor on a platform having memory and communicatively coupled to non-volatile memory; a secondary processor on the platform and coupled to a network interface controller enabling out-of-band communication and communicatively coupled to a secure portion of the non-volatile memory, the secure portion of non-volatile memory being inaccessible to the host processor; logic to receive live biometric data of a user during a pre-boot stage of booting the host processor on the platform; logic coupled to the secondary processor to compare the live biometric data with a biometric template during pre-boot, the biometric template being either retrieved from an off-line database via the out-of-band communication of the secondary processor via the network interface controller, or a locally stored biometric template, the selection of biometric template depending on a local policy and whether the off-line database is accessible; and logic to return results of the comparison of the live biometric data and the biometric template, the results to determine whether to boot the host processor or cause the boot to fail. a host processor on a platform having memory and communicatively coupled to non-volatile memory; a secondary processor on the platform and coupled to a network interface controller enabling out-of-band communication and communicatively coupled to a secure portion of the non-volatile memory, the secure portion of non-volatile memory being inaccessible to the host processor; logic to receive live biometric data of a user during a pre-boot stage of booting the host processor on the platform; logic coupled to the secondary processor to compare the live biometric data with a biometric template during pre-boot, the biometric template being either retrieved from an off-line database via the out-of-band communication of the secondary processor via the network interface controller, or a locally stored biometric template, the selection of biometric template depending on a local policy and whether the off-line database is accessible; and logic to return results of the comparison of the live biometric data and the biometric template, the results to determine whether to boot the host processor or cause the boot to fail.