mhurhangee/ep-ind-claims huggingface dataset:
A protective equipment item, such as a protective body armour vest designed to cover at least a portion of the torso and the back of a user, the said protective equipment item including at least one dorsal portion, provided with at least one pad made of a resiliently compressible material, designed for covering at least a portion of the back of the user, and at least two lateral portions (8, 9), which extend forward to the front from either side of the dorsal portion and each of which defining an arm hole together with the dorsal portion, the protective equipment item further comprises at least two front portions (2, 4), each provided with at least one pad made of a resiliently compressible material, with each front portion (2, 4) being fastened respectively to one of the lateral portions (8, 9), each front portion (2, 4) being provided with releasable fastening means for being fastened in a releasable manner to the other front portion (2, 4) in a manner such that the said front portions (2, 4) cover at least a portion of the torso of the user when these portions are fastened to one another, characterised in that it further comprises at least one pectoral panel, provided with at least one pad made of a resiliently compressible material, the said pectoral panel extending over the reverse side of the front portions (2, 4), at least to be facing the end portions of the front portions (2, 4) that extend so as to each be facing the other when the said portions (2, 4) are fastened to one another.
A system comprising: a medical device lead including: a connector at a proximal end of the lead; a conductor electrically connected to the connector at a proximal end of the conductor; and at least one electrode coupled to a distal end of the conductor; and a device securable to the proximal end of the lead and comprising an inductive element (212, 315, 500), the device including a port (210, 312) configured to receive the connector and position the inductive element (212, 315, 500) around at least a portion of the connector, wherein the inductive element (212, 315, 500) comprises a coil, and wherein a winding direction of the coil is the same as a winding direction of the conductor. a medical device lead including: a connector at a proximal end of the lead; a conductor electrically connected to the connector at a proximal end of the conductor; and at least one electrode coupled to a distal end of the conductor; and a device securable to the proximal end of the lead and comprising an inductive element (212, 315, 500), the device including a port (210, 312) configured to receive the connector and position the inductive element (212, 315, 500) around at least a portion of the connector, wherein the inductive element (212, 315, 500) comprises a coil, and wherein a winding direction of the coil is the same as a winding direction of the conductor. a connector at a proximal end of the lead; a conductor electrically connected to the connector at a proximal end of the conductor; and at least one electrode coupled to a distal end of the conductor; and a device securable to the proximal end of the lead and comprising an inductive element (212, 315, 500), the device including a port (210, 312) configured to receive the connector and position the inductive element (212, 315, 500) around at least a portion of the connector, wherein the inductive element (212, 315, 500) comprises a coil, and wherein a winding direction of the coil is the same as a winding direction of the conductor.
An extraction cleaner (10, 100, 200, 200', 300) system, comprising: a housing (112, 212, 312) with a fluid delivery pathway and a fluid recovery pathway; a suction source (18, 128) disposed within the housing (112, 212, 312) and fluidly connected to the fluid recovery pathway, the suction source (18, 128) configured to create a fluid pressure vacuum; a liquid source carried by the housing (112, 212, 312) and fluidly connected to the fluid delivery pathway, the liquid source configured to contain and dispense a liquid; a suction nozzle (16, 120, 220, 320, 420) fluidly connected to the fluid recovery pathway upstream from the suction source (18, 128), the suction nozzle (16, 120, 220, 320, 420) configured to draw therethrough the liquid dispensed from the liquid source, characterized in that the suction nozzle (16, 120, 220, 320, 420) defines a pad compartment (144, 244, 444) located within the fluid recovery pathway; wherein the extraction cleaner (10, 100, 200, 200', 300) further comprises an absorbent pad (150, 250, 350, 550, 650) removably stored inside the pad compartment (144, 244, 444). a housing (112, 212, 312) with a fluid delivery pathway and a fluid recovery pathway; a suction source (18, 128) disposed within the housing (112, 212, 312) and fluidly connected to the fluid recovery pathway, the suction source (18, 128) configured to create a fluid pressure vacuum; a liquid source carried by the housing (112, 212, 312) and fluidly connected to the fluid delivery pathway, the liquid source configured to contain and dispense a liquid; a suction nozzle (16, 120, 220, 320, 420) fluidly connected to the fluid recovery pathway upstream from the suction source (18, 128), the suction nozzle (16, 120, 220, 320, 420) configured to draw therethrough the liquid dispensed from the liquid source, characterized in that the suction nozzle (16, 120, 220, 320, 420) defines a pad compartment (144, 244, 444) located within the fluid recovery pathway; wherein the extraction cleaner (10, 100, 200, 200', 300) further comprises an absorbent pad (150, 250, 350, 550, 650) removably stored inside the pad compartment (144, 244, 444).
Endoscope with a shaft that is designed as a flexible or rigid elongated hollow body, with a distal end and a proximal end of the shaft, with a main body which houses the shaft on its proximal end, with an image guide and a working channel which extend through the shaft from the distal to the proximal end, continuing into the main body, wherein the working channel receives an instrument, with a distal end of the working channel which is located in the area of the distal end of the shaft, with a proximal end of the working channel which is located in or on the main body, wherein the cross-section of the working channel is circular at its proximal end and non-circular at its distal end, and wherein the working channel has a transitional area in which the circular cross-section transitions into the non-circular cross-section, characterised in that the transitional area is located in the main body. with a shaft that is designed as a flexible or rigid elongated hollow body, with a distal end and a proximal end of the shaft, with a main body which houses the shaft on its proximal end, with an image guide and a working channel which extend through the shaft from the distal to the proximal end, continuing into the main body, wherein the working channel receives an instrument, with a distal end of the working channel which is located in the area of the distal end of the shaft, with a proximal end of the working channel which is located in or on the main body, wherein the cross-section of the working channel is circular at its proximal end and non-circular at its distal end, and wherein the working channel has a transitional area in which the circular cross-section transitions into the non-circular cross-section, characterised in that the transitional area is located in the main body.
A method for simultaneous multicolor nonlinear imaging of multiple chromophores of different types in a sample, the method comprising: a) Emitting ultrashort broadband light pulses from a few-cycle laser system for the excitation of the multiple chromophores; b) Focusing the ultrashort broadband light pulses in the sample plane of the sample; c) Controlling the focused ultrashort broadband light pulses temporal duration in the sample plane; d) Preventing the ultrashort broadband light pulses from directly reaching the detection system; e) Measuring the nonlinear signals generated in the sample plane; f) Scanning the excitation and measurement on individual points in one dimension, "1D", or point-by-point in the sample plane in two dimensions, "2D", or point-by-point across focal planes in three dimensions, "3D"; g) Synchronizing the measurement of the non-linear signals generated in the sample plane to a photon counting detector in order to acquire time resolved nonlinear signal information on photon arrival time histograms from the sample plane; h) Processing the time resolved nonlinear signal information; i) Analysing the time resolved nonlinear signal information for determination of decay parameters associated to the photon arrival time histograms in the individual points in one dimension, "1D", or point-by-point in the sample plane in two dimensions, "2D", or point-by-point across focal planes in three dimensions, "3D". a) Emitting ultrashort broadband light pulses from a few-cycle laser system for the excitation of the multiple chromophores; b) Focusing the ultrashort broadband light pulses in the sample plane of the sample; c) Controlling the focused ultrashort broadband light pulses temporal duration in the sample plane; d) Preventing the ultrashort broadband light pulses from directly reaching the detection system; e) Measuring the nonlinear signals generated in the sample plane; f) Scanning the excitation and measurement on individual points in one dimension, "1D", or point-by-point in the sample plane in two dimensions, "2D", or point-by-point across focal planes in three dimensions, "3D"; g) Synchronizing the measurement of the non-linear signals generated in the sample plane to a photon counting detector in order to acquire time resolved nonlinear signal information on photon arrival time histograms from the sample plane; h) Processing the time resolved nonlinear signal information; i) Analysing the time resolved nonlinear signal information for determination of decay parameters associated to the photon arrival time histograms in the individual points in one dimension, "1D", or point-by-point in the sample plane in two dimensions, "2D", or point-by-point across focal planes in three dimensions, "3D".
A method for producing a skin equivalent, comprising the steps of: a) producing a dermal matrix including a first layer and a second layer, comprising the steps of: i) providing the first layer; ii) providing a polymerizable solution comprising a liquid and at least one polymer selected from collagen, elastin and/or hyaluronic acid; iii) adding the polymerizable solution to the first layer; iv) polymerizing the solution to the second layer; v) compressing the second layer, wherein, through the compression, the liquid content of the second layer is reduced and the first layer and the second layer are joined to form the dermal matrix; and vi) introducing at least one cavity into the dermal matrix; b) introducing at least one hair follicle and/or hair follicle germ into the at least one cavity of the dermal matrix produced in step a) to produce a skin surrogate; and c) adding at least one further cell population, selected from fibroblasts, endothelial cells, adipocytes, nerve cells, gland cells, melanocytes or keratinocytes, to the skin surrogate to produce the skin equivalent. a) producing a dermal matrix including a first layer and a second layer, comprising the steps of: i) providing the first layer; ii) providing a polymerizable solution comprising a liquid and at least one polymer selected from collagen, elastin and/or hyaluronic acid; iii) adding the polymerizable solution to the first layer; iv) polymerizing the solution to the second layer; v) compressing the second layer, wherein, through the compression, the liquid content of the second layer is reduced and the first layer and the second layer are joined to form the dermal matrix; and vi) introducing at least one cavity into the dermal matrix; i) providing the first layer; ii) providing a polymerizable solution comprising a liquid and at least one polymer selected from collagen, elastin and/or hyaluronic acid; iii) adding the polymerizable solution to the first layer; iv) polymerizing the solution to the second layer; v) compressing the second layer, wherein, through the compression, the liquid content of the second layer is reduced and the first layer and the second layer are joined to form the dermal matrix; and vi) introducing at least one cavity into the dermal matrix; b) introducing at least one hair follicle and/or hair follicle germ into the at least one cavity of the dermal matrix produced in step a) to produce a skin surrogate; and c) adding at least one further cell population, selected from fibroblasts, endothelial cells, adipocytes, nerve cells, gland cells, melanocytes or keratinocytes, to the skin surrogate to produce the skin equivalent.
A fluid leak detection system comprising: a plurality of sensing devices positioned throughout a pipe system having a plurality of pipe branches, each sensing device comprising: an acoustic sensor, wherein the acoustic sensor is capable of detecting acoustic signals from a pipe in the pipe system used to transport a fluid; a battery electrically connected to the acoustic sensor; a housing containing the acoustic sensor and the battery; and a non-invasive coupling element configured to couple the housing (i) to the pipe or (ii) to a location on the pipe; and a processing component in communication with the plurality of sensing devices, the processing component configured to perform an analysis on combinations of acoustic signature data captured from the plurality of sensing devices, the analysis having a system leak detection sensitivity, wherein the analysis performed by the processing component comprises a) identifying, from one sensor in the plurality of sensors, an acoustic frequency range that is active during a fluid flow event, and b) adjusting other sensors in the plurality of sensors to focus on a subset of the acoustic frequency range. a plurality of sensing devices positioned throughout a pipe system having a plurality of pipe branches, each sensing device comprising: an acoustic sensor, wherein the acoustic sensor is capable of detecting acoustic signals from a pipe in the pipe system used to transport a fluid; a battery electrically connected to the acoustic sensor; a housing containing the acoustic sensor and the battery; and a non-invasive coupling element configured to couple the housing (i) to the pipe or (ii) to a location on the pipe; and an acoustic sensor, wherein the acoustic sensor is capable of detecting acoustic signals from a pipe in the pipe system used to transport a fluid; a battery electrically connected to the acoustic sensor; a housing containing the acoustic sensor and the battery; and a non-invasive coupling element configured to couple the housing (i) to the pipe or (ii) to a location on the pipe; and a processing component in communication with the plurality of sensing devices, the processing component configured to perform an analysis on combinations of acoustic signature data captured from the plurality of sensing devices, the analysis having a system leak detection sensitivity, wherein the analysis performed by the processing component comprises a) identifying, from one sensor in the plurality of sensors, an acoustic frequency range that is active during a fluid flow event, and b) adjusting other sensors in the plurality of sensors to focus on a subset of the acoustic frequency range.
An information processing method, comprising: a) obtaining, by a first terminal during a call with a second terminal by using voice information sent by the second terminal, to-be-obtained information and object information of an object to which the to-be-obtained information belongs; b) determining, by the first terminal, at least one category to which the to-be-obtained information belongs; c) determining, by the first terminal, a group that is in any category of the at least one category and is corresponding to the object to which the to-be-obtained information belongs; d) searching, by the first terminal, information in the corresponding group in the any category for target information associated with the object information; and e) processing, by the first terminal, the target information; and f) after the obtaining, by a first terminal, the to-be-obtained information and the object information, and before the determining a group that is in the any category and is corresponding to the object to which the to-be-obtained information belongs, further comprising: g) extracting, by the first terminal, valid information from the object information; and h) the searching, by the first terminal, information in the corresponding group in the any category for target information associated with the object information specifically comprises: i) searching, by the first terminal, the information in the corresponding group in the any category for target information associated with the valid information. a) obtaining, by a first terminal during a call with a second terminal by using voice information sent by the second terminal, to-be-obtained information and object information of an object to which the to-be-obtained information belongs; b) determining, by the first terminal, at least one category to which the to-be-obtained information belongs; c) determining, by the first terminal, a group that is in any category of the at least one category and is corresponding to the object to which the to-be-obtained information belongs; d) searching, by the first terminal, information in the corresponding group in the any category for target information associated with the object information; and e) processing, by the first terminal, the target information; and f) after the obtaining, by a first terminal, the to-be-obtained information and the object information, and before the determining a group that is in the any category and is corresponding to the object to which the to-be-obtained information belongs, further comprising: g) extracting, by the first terminal, valid information from the object information; and h) the searching, by the first terminal, information in the corresponding group in the any category for target information associated with the object information specifically comprises: i) searching, by the first terminal, the information in the corresponding group in the any category for target information associated with the valid information.
A surgical stapling instrument for applying a plurality of surgical staples to tissue, comprising: (a) a stapling head assembly, wherein said stapling head assembly comprises: (i) a staple holder containing a plurality of surgical staples, (ii) an anvil for forming the staples, said anvil being mounted on an anvil shaft slidably supported for movement relative to said stapling head assembly to clamp tissue between said anvil and said staple holder, and (iii) a staple driver operable to drive the staples from said staple holder into tissue and against said anvil; (b) an actuator handle assembly, comprising: (i) a first actuator operable to control motion of said anvil, and (ii) a second actuator operable to control motion of said staple driver; (c) a shaft assembly coupling said stapling head assembly with said actuator handle assembly; (d) a safety latch responsive to said first actuator, wherein the safety latch is configured to prevent operation of said second actuator when the gap between said anvil and said staple holder is outside a predetermined distance; and (e) a locking member responsive to said safety latch, wherein the locking member is configured to prevent operation of said first actuator when the safety latch is positioned to allow operation of the second actuator. (a) a stapling head assembly, wherein said stapling head assembly comprises: (i) a staple holder containing a plurality of surgical staples, (ii) an anvil for forming the staples, said anvil being mounted on an anvil shaft slidably supported for movement relative to said stapling head assembly to clamp tissue between said anvil and said staple holder, and (iii) a staple driver operable to drive the staples from said staple holder into tissue and against said anvil; (i) a staple holder containing a plurality of surgical staples, (ii) an anvil for forming the staples, said anvil being mounted on an anvil shaft slidably supported for movement relative to said stapling head assembly to clamp tissue between said anvil and said staple holder, and (iii) a staple driver operable to drive the staples from said staple holder into tissue and against said anvil; (b) an actuator handle assembly, comprising: (i) a first actuator operable to control motion of said anvil, and (ii) a second actuator operable to control motion of said staple driver; (i) a first actuator operable to control motion of said anvil, and (ii) a second actuator operable to control motion of said staple driver; (c) a shaft assembly coupling said stapling head assembly with said actuator handle assembly; (d) a safety latch responsive to said first actuator, wherein the safety latch is configured to prevent operation of said second actuator when the gap between said anvil and said staple holder is outside a predetermined distance; and (e) a locking member responsive to said safety latch, wherein the locking member is configured to prevent operation of said first actuator when the safety latch is positioned to allow operation of the second actuator.
A filter element, comprising: filter media at least partially surrounding a central axis and extending between first and second longitudinal ends; a first end cap disposed adjacent the first longitudinal end of the filter media, said first end cap defining a fluid flow aperture; and a second end cap disposed adjacent the second longitudinal end of the filter media, characterized in that said first end cap includes at least one first indexing structure (40, 42), the first indexing structure (40, 42) being configured to define a single installed orientation with respect to a bowl and that said second end cap includes at least one second indexing structure comprising a notch configured to mate with a complementary protrusion from an inside surface of the bowl to define a single installed orientation with respect to the bowl, and in that the indexing structures (40, 42, 58) of said first and second end caps (38, 56) have a predetermined angular relationship to each other, wherein said first and second end caps (38, 56) are each configured to mate with the bowl so that both end caps (38, 56) are maintained in a predetermined orientation. filter media at least partially surrounding a central axis and extending between first and second longitudinal ends; a first end cap disposed adjacent the first longitudinal end of the filter media, said first end cap defining a fluid flow aperture; and a second end cap disposed adjacent the second longitudinal end of the filter media,
A lower profile for a balcony railing, comprising a first support structure extending in a longitudinal direction of the lower profile for supporting a bottom part of one or more railing posts (41 to 45), wherein the lower profile for the balcony railing for supporting the railing posts from below further comprises a second support structure (310, 312, 313) in the same profile, the second support structure (310, 312, 313) extending in the longitudinal direction of the lower profile for supporting a bottom part of a cover plate structure of the balcony railing, and wherein the lower profile for a balcony railing also comprises a water control surface in the same profile; wherein said water control surface in the lower profile belongs to the same integral entity as said first support structure for supporting the bottom part of one or more railing posts and said second support structure (310, 313, 313) for supporting the bottom part of the cover plate structure of the balcony railing.