mhurhangee/patent-ind-claim-en huggingface dataset:
A tote handling assembly , comprising: a wiper bar extending substantially parallel to a longitudinal axis of the tote handling assembly and moveable along a transverse axis of the tote handling assembly perpendicular to the longitudinal axis, a plurality of actuators connected to and moveable with the wiper bar , a tab connected to an actuator of the plurality of actuators , the actuator being configured to move the tab in a direction substantially perpendicular to a plane including the longitudinal axis and the transverse axis to engage a wall of a tote disposed on the tote handling assembly , and a plurality of substantially cylindrical rollers extending substantially parallel to the transverse axis, each roller of the plurality of rollers being rotatable in a clockwise direction and a counterclockwise direction, wherein: movement of the wiper bar in a direction along the transverse axis, while the tab is engaged with the wall of the tote , pushes the tote , in the direction along the transverse axis, along an outer surface of at least one of the plurality of substantially cylindrical rollers . a wiper bar extending substantially parallel to a longitudinal axis of the tote handling assembly and moveable along a transverse axis of the tote handling assembly perpendicular to the longitudinal axis, a plurality of actuators connected to and moveable with the wiper bar , a tab connected to an actuator of the plurality of actuators , the actuator being configured to move the tab in a direction substantially perpendicular to a plane including the longitudinal axis and the transverse axis to engage a wall of a tote disposed on the tote handling assembly , and a plurality of substantially cylindrical rollers extending substantially parallel to the transverse axis, each roller of the plurality of rollers being rotatable in a clockwise direction and a counterclockwise direction, wherein: movement of the wiper bar in a direction along the transverse axis, while the tab is engaged with the wall of the tote , pushes the tote , in the direction along the transverse axis, along an outer surface of at least one of the plurality of substantially cylindrical rollers .
A device for stimulating the tracheobronchial air of a patient suffering from an obstructive ventilatory disorder and able to modify the rheology of his tracheobronchial mucus, which comprises: (i) a negative pressure generator ; (ii) a physiological interface able to interface the device with the patient's respiratory apparatus ; (iii) a connecting pipe connecting the physiological interface to the negative pressure generator ; and (iv) a control circuit capable of controlling said negative pressure generator , generating a passive expiration by applying a succession of alternating negative pressure and venting impulses, with a determined frequency; characterized in that : (v) said control circuit defines a first parameter, named expiration cycle, corresponding to a period during which said negative pressure impulses are applied to the patient, and a second parameter, named duty cycle, corresponding to a ratio between the time during which negative pressure is applied to the patient and the total duration of an expiration cycle; (vi) said control circuit repeats a defined number of exhalation cycles, controlling said generator with a first frequency of the order of 10 to 15 Hz and a first duty cycle of 0.2 to 0.7 during a first part of said expiration cycles, then with a second frequency of the order of 4 to 7 Hz and a second duty cycle of 0.5 to 0.8, during a second part of the expiration cycles. (i) a negative pressure generator ; (ii) a physiological interface able to interface the device with the patient's respiratory apparatus ; (iii) a connecting pipe connecting the physiological interface to the negative pressure generator ; and (iv) a control circuit capable of controlling said negative pressure generator , generating a passive expiration by applying a succession of alternating negative pressure and venting impulses, with a determined frequency; (v) said control circuit defines a first parameter, named expiration cycle, corresponding to a period during which said negative pressure impulses are applied to the patient, and a second parameter, named duty cycle, corresponding to a ratio between the time during which negative pressure is applied to the patient and the total duration of an expiration cycle; (vi) said control circuit repeats a defined number of exhalation cycles, controlling said generator with a first frequency of the order of 10 to 15 Hz and a first duty cycle of 0.2 to 0.7 during a first part of said expiration cycles, then with a second frequency of the order of 4 to 7 Hz and a second duty cycle of 0.5 to 0.8, during a second part of the expiration cycles.
Process for making a singly curved panel, comprising: a) winding at least one sheet of high-strength fibers around a cylindrical mandrel to create a cylindrical hollow article around the mandrel, b) subjecting the cylindrical hollow article around the mandrel to heat and/or pressure to provide a consolidated cylindrical hollow article, and c) cutting the consolidated cylindrical hollow article into at least one singly curved panel, wherein the at least one sheet of high-strength fibers comprises at least two layers of unidirectionally oriented high-strength fibers and wherein the main extension directions of the unidirectionally oriented high-stength fibers in adjacent layers is non-unidirectional. a) winding at least one sheet of high-strength fibers around a cylindrical mandrel to create a cylindrical hollow article around the mandrel, b) subjecting the cylindrical hollow article around the mandrel to heat and/or pressure to provide a consolidated cylindrical hollow article, and c) cutting the consolidated cylindrical hollow article into at least one singly curved panel,
A method of producing a cavity backed antenna for off-body communications, the cavity backed antenna comprising a substantially omnidirectional antenna element, a cavity filler, and a cavity back plate, the method comprising the steps of: a. selecting a position upon a user's body above an underlying bone of the user's body; b. determining mechanical and electrical characteristics of the user's body at the selected position; c. configuring the substantially omnidirectional antenna element for the mechanical and electrical characteristics of the user's body at the selected position; d. applying the substantially omnidirectional antenna element at the selected position above the underlying bone of the user's body, such that the underlying bone of the user's body forms the cavity back plate and the soft tissue of the user's body between the underlying bone and the substantially omnidirectional antenna element forms the cavity filler; such that the gain of the cavity backed antenna is concentrated in a direction away from the user's body. a. selecting a position upon a user's body above an underlying bone of the user's body; b. determining mechanical and electrical characteristics of the user's body at the selected position; c. configuring the substantially omnidirectional antenna element for the mechanical and electrical characteristics of the user's body at the selected position; d. applying the substantially omnidirectional antenna element at the selected position above the underlying bone of the user's body, such that the underlying bone of the user's body forms the cavity back plate and the soft tissue of the user's body between the underlying bone and the substantially omnidirectional antenna element forms the cavity filler;
Analytical magazine , wherein the analytical magazine has at least two chambers , in which analytical aids can be accommodated, wherein the analytical aids are accommodated in the chambers , wherein the analytical aids in each case comprise at least one microsampler for making at least one opening in a test subject's skin and at least one test element with at least one test chemistry for detecting at least one analyte in a body fluid, wherein the test chemistry is at least largely stable against moisture, wherein the test chemistry comprises an enzyme and a stable coenzyme, wherein the enzyme and the stable coenzyme are stored together, wherein the stability is such that when stored at 32°C, a relative humidity of the air of 85% at normal pressure for a period of three weeks, an activity of the test chemistry of the analytical aid decreases by less than 50%, wherein the analytical magazine has a packing density of the analytical aids of more than 5 analytical aids per cm 3 , wherein the magazine is configured as a reversing magazine that can be inserted into an analytical system in at least two orientations.
Suction unit for a suction machine, comprising a motor device , a fan device for process air which is driven by the motor device and comprises a closed fan housing , and a hood (48; 84; 100) which is positioned in spaced relation to the fan housing and which covers the fan device , wherein between the hood (48; 84; 100) and the fan device is arranged a cooling air routing structure which is fluid-tightly isolated from a process air discharge structure by the hood (48; 84; 100), characterized in that the hood (48; 84; 100) forms a seal of the cooling air routing structure to the process air discharge structure between an intake for cooling air and an outlet for cooling air, and in that the fan device comprises an outlet tube which is tangentially arranged.
A method for transmitting an uplink signal, comprising: receiving (S210), by a terminal device, a downlink signal transmitted by a network device; determining (S220), by the terminal device, spatial relation information of the uplink signal corresponding to the downlink signal according to at least one Transmission Configuration Indicator, TCI, state of the downlink signal; and transmitting (S230), by the terminal device, the uplink signal to the network device according to the spatial relation information, wherein the downlink signal is a Physical Downlink Control Channel, PDCCH, and the uplink signal corresponding to the downlink signal is a Physical Uplink Shared Channel, PUSCH, or a Physical Uplink Control Channel, PUCCH, and wherein the at least one TCI state of the downlink signal comprises a Channel State Information Reference Signal, CSI-RS, resource index, the spatial relation information 2. indicates a beam used for transmitting the uplink signal corresponding to the downlink signal, and said determining, by the terminal device, the spatial relation information of the uplink signal corresponding to the downlink signal according to the at least one TCI state of the downlink signal comprises: determining, by the terminal device, the beam used for receiving a CSI-RS resource corresponding to the CSI-RS resource index, as the beam for transmitting the uplink signal corresponding to the downlink signal. receiving (S210), by a terminal device, a downlink signal transmitted by a network device; determining (S220), by the terminal device, spatial relation information of the uplink signal corresponding to the downlink signal according to at least one Transmission Configuration Indicator, TCI, state of the downlink signal; and transmitting (S230), by the terminal device, the uplink signal to the network device according to the spatial relation information, wherein the downlink signal is a Physical Downlink Control Channel, PDCCH, and the uplink signal corresponding to the downlink signal is a Physical Uplink Shared Channel, PUSCH, or a Physical Uplink Control Channel, PUCCH, and wherein the at least one TCI state of the downlink signal comprises a Channel State Information Reference Signal, CSI-RS, resource index, the spatial relation information 2. indicates a beam used for transmitting the uplink signal corresponding to the downlink signal, and said determining, by the terminal device, the spatial relation information of the uplink signal corresponding to the downlink signal according to the at least one TCI state of the downlink signal comprises: determining, by the terminal device, the beam used for receiving a CSI-RS resource corresponding to the CSI-RS resource index, as the beam for transmitting the uplink signal corresponding to the downlink signal.
A gas sensor for detecting methylbenzene gases comprising a gas sensing layer composed of oxide (Co 3 O 4 ) nanostructures, characterised in that the nanostructures are Palladium (Pd) loaded in an amount larger than 0 at% and not larger than 1.7 at%.
Hydraulic machine having a housing interior and a group of hydrostatic working chambers mounted therein so as to be rotatable about an axis of rotation , said working chambers, upon rotation of the group, being connectable in an alternating manner to a high pressure and to a low pressure of the hydraulic machine and having a leakage into the housing interior , in which a heat exchanger device (36; 136; 236; 336; 436; 536) is accommodated, characterized in that a wall of the heat exchanger device (36; 136; 236; 336; 436; 536) is formed by a tube.
A photovoltaic solar cell , comprising a silicon substrate ; a passivation layer located on at least one surface of the silicon substrate ; and an electrode, an electrode pad and an extension line printed on at least one surface of the silicon substrate , wherein the electrode comprising a busbar and a finger crossed with each other, and the finger is in contact with the silicon substrate , and wherein two ends of the extension line are respectively connected to the busbar and the electrode pad , and the extension line is in contact with the silicon substrate . a silicon substrate ; a passivation layer located on at least one surface of the silicon substrate ; and an electrode, an electrode pad and an extension line printed on at least one surface of the silicon substrate , wherein the electrode comprising a busbar and a finger crossed with each other, and the finger is in contact with the silicon substrate , and wherein two ends of the extension line are respectively connected to the busbar and the electrode pad , and the extension line is in contact with the silicon substrate .
A radar target simulator frontend, configured to simulate at least one radar target for testing a radar device under test, comprising at least two antenna units (10-15, 40-43), arranged along a first angle under investigation, wherein the at least two antenna units (10-15, 40-43) are configured to be selectively activated and deactivated, each antenna unit (10-15, 40-43) of the at least two antenna units (10-15, 40-43) generating a simulated radar target along the first angle under investigation, when activated, wherein the radar target simulator frontend is configured to simulate a near field radar target by jointly activating at least two adjacent antenna units (10-15, 40-43) of the at least two antenna units (10-15, 40-43). comprising at least two antenna units (10-15, 40-43), arranged along a first angle under investigation, wherein the at least two antenna units (10-15, 40-43) are configured to be selectively activated and deactivated, each antenna unit (10-15, 40-43) of the at least two antenna units (10-15, 40-43) generating a simulated radar target along the first angle under investigation, when activated, wherein the radar target simulator frontend is configured to simulate a near field radar target by jointly activating at least two adjacent antenna units (10-15, 40-43) of the at least two antenna units (10-15, 40-43).
A manufacturing method of a cartridge (B), the cartridge being attachable to an apparatus main body (A) of an image forming apparatus, and the cartridge including a first member and a second member , the first member including a first surface and a hole provided in the first surface , and the second member including a second surface and a third surface disposed on an opposite side of the second surface , the manufacturing method comprising: holding the first member and the second member so that the second surface covers the hole and so that the second surface and the first surface are in contact with each other; and joining the first member and the second member to each other by ultrasonic spot welding so that a portion of the third surface is melted and a recess recessed towards the hole is formed in the third surface and so that at least part of a fused portion of the first member and the second member enters the hole . holding the first member and the second member so that the second surface covers the hole and so that the second surface and the first surface are in contact with each other; and joining the first member and the second member to each other by ultrasonic spot welding so that a portion of the third surface is melted and a recess recessed towards the hole is formed in the third surface and so that at least part of a fused portion of the first member and the second member enters the hole .
A door actuator linkage comprising a lever which extends along a longitudinal axis and merges into a linkage head via a crank , wherein the linkage head is designed for rotationally fixed mounting on an output shaft of a door actuator , wherein a free space for cable routing is formed by the crank , and the free space is delimited by the linkage head and by a crank surface of the lever , wherein the lever extends up to an imaginary boundary surface , which is defined perpendicular to the longitudinal axis , and wherein the crank surface is partially recessed from this boundary surface in order to expand the free space , characterised in that the crank surface has an inclined section which extends over the entire crank surface or a part of the crank surface , wherein the inclined section extends from an acute-angled end to an obtuse-angled end and wherein the acute-angled end is closer to the boundary surface than the obtuse-angled end, wherein in the lever and/or between the lever and a lever cover of the door actuator linkage surrounding the lever and/or in the lever cover is formed at least one cable channel , wherein the cable channel opens into the free space at the obtuse-angled end . a lever which extends along a longitudinal axis and merges into a linkage head via a crank , wherein the linkage head is designed for rotationally fixed mounting on an output shaft of a door actuator , wherein a free space for cable routing is formed by the crank , and the free space is delimited by the linkage head and by a crank surface of the lever , wherein the lever extends up to an imaginary boundary surface , which is defined perpendicular to the longitudinal axis , and wherein the crank surface is partially recessed from this boundary surface in order to expand the free space , characterised in that the crank surface has an inclined section which extends over the entire crank surface or a part of the crank surface , wherein the inclined section extends from an acute-angled end to an obtuse-angled end and wherein the acute-angled end is closer to the boundary surface than the obtuse-angled end, wherein in the lever and/or between the lever and a lever cover of the door actuator linkage surrounding the lever and/or in the lever cover is formed at least one cable channel , wherein the cable channel opens into the free space at the obtuse-angled end .
A depilatory composition characterised in that it comprises at least one thermochromic material containing two or more reversible thermochromic compositions, the first at a concentration comprised between 0.1 and 8 %, and the second at a concentration comprised between 0.05 and 8 % by weight of the total weight of the thermochromic material, both being heat-sensitive at a temperature higher than 40°C but different from each other, in such a way that the first is heat-sensitive in a lower temperature range than the second.
A data processing apparatus, comprising: rendering circuitry to render an image frame by plural successive rendering stages, each rendering stage having a respective initial rendering stage time allocation, in which each rendering stage is performed so as to obtain a different rendering effect for the rendered image frame; prediction circuitry to predict, in dependence upon rendering of at least one rendering stage of the plural successive rendering stages of a given image frame by the rendering circuitry, whether a total time period for rendering the given image frame by the rendering circuitry will exceed an associated image frame rendering time allocation for the given image frame; and allocation circuitry to vary the respective initial rendering stage time allocation for one or more rendering stages which are not yet completed in respect of the given image frame responsive to the prediction circuity, so as to shorten the total time period for rendering the given image frame by the rendering circuitry. rendering circuitry to render an image frame by plural successive rendering stages, each rendering stage having a respective initial rendering stage time allocation, in which each rendering stage is performed so as to obtain a different rendering effect for the rendered image frame; prediction circuitry to predict, in dependence upon rendering of at least one rendering stage of the plural successive rendering stages of a given image frame by the rendering circuitry, whether a total time period for rendering the given image frame by the rendering circuitry will exceed an associated image frame rendering time allocation for the given image frame; and allocation circuitry to vary the respective initial rendering stage time allocation for one or more rendering stages which are not yet completed in respect of the given image frame responsive to the prediction circuity, so as to shorten the total time period for rendering the given image frame by the rendering circuitry.
A leadless pacing system comprising: a leadless pacing device configured to sense an electric cardiac signal and configured to deliver pacing therapy to a heart of a patient; and a processing module configured to: detect, based on the electric cardiac signal and while the leadless pacing device is in an atrio-ventricular synchronous pacing mode, a first atrial activation event, determine, based on the electric cardiac signal, a second atrial activation event was not detected within a detection window that begins at the first atrial activation event, and control the leadless pacing device to deliver pacing pulses to a ventricle of a patient according to an asynchronous ventricular pacing mode based on the determination that the second atrial activation event was not detected within the detection window. a leadless pacing device configured to sense an electric cardiac signal and configured to deliver pacing therapy to a heart of a patient; and a processing module configured to: detect, based on the electric cardiac signal and while the leadless pacing device is in an atrio-ventricular synchronous pacing mode, a first atrial activation event, determine, based on the electric cardiac signal, a second atrial activation event was not detected within a detection window that begins at the first atrial activation event, and detect, based on the electric cardiac signal and while the leadless pacing device is in an atrio-ventricular synchronous pacing mode, a first atrial activation event, determine, based on the electric cardiac signal, a second atrial activation event was not detected within a detection window that begins at the first atrial activation event, and control the leadless pacing device to deliver pacing pulses to a ventricle of a patient according to an asynchronous ventricular pacing mode based on the determination that the second atrial activation event was not detected within the detection window.