mhurhangee/patent-ind-claim-en huggingface dataset:
A seal assembly, comprising: a biopsy cap having an inner chamber therein, a cap aperture at a first end in fluid communication with the inner chamber , and a securing member at a second end; a plurality of seal members (100; 200; 300) disposed within the inner chamber , each seal member (100; 200; 300) having a seal aperture in fluid communication with the cap aperture ; and a base (233; 322; 2830) disposed within the securing member , the base having a base aperture therethrough in fluid communication with each of the seal apertures (105; 240; 340), characterised in that the base further comprises at least two extensions that extend distally from the base and are configured to engage a port of a working channel of a medical device. a biopsy cap having an inner chamber therein, a cap aperture at a first end in fluid communication with the inner chamber , and a securing member at a second end; a plurality of seal members (100; 200; 300) disposed within the inner chamber , each seal member (100; 200; 300) having a seal aperture in fluid communication with the cap aperture ; and a base (233; 322; 2830) disposed within the securing member , the base having a base aperture therethrough in fluid communication with each of the seal apertures (105; 240; 340), characterised in that the base further comprises at least two extensions that extend distally from the base and are configured to engage a port of a working channel of a medical device.
A box body for commercial vehicles, having roof , side wall , and/or base parts , preferably manufactured from sandwich panels, wherein at least one cable conduit for arranging lines and/or cable strands is integrated into the box body , wherein the cable conduit is provided between a side wall and a base part , which conduit terminates essentially flush with an outer wall of a side wall part and is essentially flush with a lower side of a base part and is closable by a removable cover , characterized in that a side wall part is formed stepped and has a free space for arranging a base part , wherein the base part is insertable in regions into the free space and the side wall supports itself on an upper side of the base part and adjoins the cable conduit below the lower side of the side wall part approximately up to the lower side of the base part .
A power cable (100;100a;200) comprising a cable jacket (106;106a;206) enclosing; - an electric conductor (103,103a,103c;203); - an electrical insulation layer (105;105a;205) surrounding the electrical conductor (103,103a,103c;203); - a cooling system comprising a cooling duct (101;101a;201) substantially parallel to the electrical conductor (103,103a,103c;203) along a power cable longitudinal axis and designed to be, in use, run through by a cooling fluid (102;102a); characterized in that the power cable further comprises: - a carbon allotrope layer (104;104a;204) in direct contact with the electrical conductor (103,103a,103c;203), wherein the carbon allotrope layer (104;104a;204) is a layer made of graphene or a layer made of carbon nanotubes (CNTs), wherein the carbon allotrope layer (104;104a;204) is provided between the electric conductor (103,103a,103c;203) and the cooling duct, wherein the cooling duct (101;101a;201) is at least partially in direct contact with the carbon allotrope layer (104;104a;204). - an electric conductor (103,103a,103c;203); - an electrical insulation layer (105;105a;205) surrounding the electrical conductor (103,103a,103c;203); - a cooling system comprising a cooling duct (101;101a;201) substantially parallel to the electrical conductor (103,103a,103c;203) along a power cable longitudinal axis and designed to be, in use, run through by a cooling fluid (102;102a); characterized in that the power cable further comprises: - a carbon allotrope layer (104;104a;204) in direct contact with the electrical conductor (103,103a,103c;203), wherein the carbon allotrope layer (104;104a;204) is a layer made of graphene or a layer made of carbon nanotubes (CNTs), wherein the carbon allotrope layer (104;104a;204) is provided between the electric conductor (103,103a,103c;203) and the cooling duct, wherein the cooling duct (101;101a;201) is at least partially in direct contact with the carbon allotrope layer (104;104a;204).
Method for manufacturing a hybrid structural part of a motor vehicle, wherein it comprises the following steps, during which: - step a: a sheet of metal material is shaped to form a metal part , - step b: one or more molded layers made of thermoplastic or thermosetting material are produced, which layers cover all or part of the surface of at least one face of the metal part, and - step c: reinforcing strips , formed from unidirectional continuous fibers encased in a polymer matrix, are placed locally on the molded layer which is made of thermoplastic or thermosetting material and which covers all or part of at least one of the faces of the metal part . - step a: a sheet of metal material is shaped to form a metal part , - step b: one or more molded layers made of thermoplastic or thermosetting material are produced, which layers cover all or part of the surface of at least one face of the metal part, and - step c: reinforcing strips , formed from unidirectional continuous fibers encased in a polymer matrix, are placed locally on the molded layer which is made of thermoplastic or thermosetting material and which covers all or part of at least one of the faces of the metal part .
A cosmetic container having a detachable application member comprising a coupling part , an ejection part coupled to an upper end of the coupling part , and an application surface coupled to an upper end of the ejection part , the cosmetic container comprising: a container body having a storage space ; a pump for discharging contents of the container body to an outside; a cap for fixing the pump to the container body ; a button member , wherein the button member is formed with a first outlet on an upper surface thereof with a push protrusion , and at one side thereof with a latching groove , and wherein the coupling part of the application member is fitted onto a side surface of the first outlet ; wherein the button member is coupled to an upper part of the pump and formed to protrude upward of the cap , the application member is detachably attached to the side of the button member , and wherein the application member is provided at a lower side thereof with a latching protrusion and the latching protrusion is formed below the coupling part and is latch-coupled to the latching groove of the button member to fixedly couple the application member to the button member ; and wherein the first outlet communicates with a second outlet of the application member to discharge the contents of the container body to an outside. a container body having a storage space ; a pump for discharging contents of the container body to an outside; a cap for fixing the pump to the container body ; a button member , wherein the button member is formed with a first outlet on an upper surface thereof with a push protrusion , and at one side thereof with a latching groove , and wherein the coupling part of the application member is fitted onto a side surface of the first outlet ; wherein the button member is coupled to an upper part of the pump and formed to protrude upward of the cap , the application member is detachably attached to the side of the button member , and wherein the application member is provided at a lower side thereof with a latching protrusion and the latching protrusion is formed below the coupling part and is latch-coupled to the latching groove of the button member to fixedly couple the application member to the button member ; and wherein the first outlet communicates with a second outlet of the application member to discharge the contents of the container body to an outside.
A method comprising: registering, via a visualization device , a virtual model of a portion of an anatomy of an ankle of a patient to a corresponding portion of the anatomy of the ankle viewable via the visualization device, the virtual model obtained from a virtual surgical plan for an ankle arthroplasty procedure to attach a prosthetic to the anatomy; displaying, via the visualization device and overlaid on the portion of the anatomy, a virtual guide that guides at least one of preparation of the anatomy for attachment of the prosthetic or attachment of the prosthetic to the anatomy; and displaying, via the visualization device, a synthesized view showing a relative position of a tibial tray trial and a tibia of the patient , wherein the synthesized view shows a relative position of a posterior edge of the tibial tray trial and a posterior edge of the tibia. registering, via a visualization device , a virtual model of a portion of an anatomy of an ankle of a patient to a corresponding portion of the anatomy of the ankle viewable via the visualization device, the virtual model obtained from a virtual surgical plan for an ankle arthroplasty procedure to attach a prosthetic to the anatomy; displaying, via the visualization device and overlaid on the portion of the anatomy, a virtual guide that guides at least one of preparation of the anatomy for attachment of the prosthetic or attachment of the prosthetic to the anatomy; and displaying, via the visualization device, a synthesized view showing a relative position of a tibial tray trial and a tibia of the patient , wherein the synthesized view shows a relative position of a posterior edge of the tibial tray trial and a posterior edge of the tibia.
A method for manufacturing sintered ore, in which a sintering raw material containing at least an iron-containing raw material, a CaO-containing raw material, and a bonding agent is granulated while water is added to the sintering raw material, and the granulated sintering raw material is sintered in a sintering machine, the method comprising a measuring process of continuously measuring a component concentration of the sintering raw material by using at least one of an infrared analyzer, a laser analyzer, a neutron analyzer or a microwave analyzer, and an adjusting process of adjusting an amount of the bonding agent added in accordance with the component concentration measured in the measuring process, wherein a concentration of C is measured in the measuring process. a measuring process of continuously measuring a component concentration of the sintering raw material by using at least one of an infrared analyzer, a laser analyzer, a neutron analyzer or a microwave analyzer, and an adjusting process of adjusting an amount of the bonding agent added in accordance with the component concentration measured in the measuring process, wherein a concentration of C is measured in the measuring process.
An optics method comprising: processing an optical beam to produce a structured optical beam for human perception of optical polarization, wherein processing the optical beam comprises: receiving the optical beam from a laser source; characterized in : attenuating the optical beam to an exposure irradiance level that is safe for direct viewing by a human eye of a human subject; expanding the optical beam to a size configured for a field of view of the human eye; and preparing the optical beam with a position-dependent polarization profile; and illuminating the field of view of the human eye with a structured optical beam by directing the structured optical beam towards the human eye, wherein the structured optical beam comprises the position-dependent polarization profile, and wherein illuminating the field of view of the human eye with the structured optical beam induces an entoptic profile that allows the human subject to perceive the position-dependent polarization profile. processing an optical beam to produce a structured optical beam for human perception of optical polarization, wherein processing the optical beam comprises: receiving the optical beam from a laser source; characterized in : attenuating the optical beam to an exposure irradiance level that is safe for direct viewing by a human eye of a human subject; expanding the optical beam to a size configured for a field of view of the human eye; and preparing the optical beam with a position-dependent polarization profile; and receiving the optical beam from a laser source; characterized in : attenuating the optical beam to an exposure irradiance level that is safe for direct viewing by a human eye of a human subject; expanding the optical beam to a size configured for a field of view of the human eye; and preparing the optical beam with a position-dependent polarization profile; and illuminating the field of view of the human eye with a structured optical beam by directing the structured optical beam towards the human eye, wherein the structured optical beam comprises the position-dependent polarization profile, and wherein illuminating the field of view of the human eye with the structured optical beam induces an entoptic profile that allows the human subject to perceive the position-dependent polarization profile.
A cabinet for displaying and preserving cooked heated food products ( P ), comprising: - a supporting frame provided with a plurality of sides suited to define an internal compartment ; - a supporting plane with an upper surface positioned inside said compartment and suited to support the cooked food products ( P ) intended to be displayed and preserved; - heating means positioned inside said compartment above said plane supporting plane , said heating means being suited to heat said plane supporting plane to a predetermined temperature ( T ); wherein said heating means comprise at least one infrared source ; wherein it comprises a reflector element positioned inside said compartment and arranged under said infrared source , said reflector element being suited to at least partially reflect the infrared radiation emitted by said infrared source ; said reflector being configured to reflect only a portion of the infrared radiation emitted by said source and suited to reach said supporting plane in a direct manner; so as to shield a large area of said upper surface of said supporting plane from the direct infrared radiation generated by said source , the remaining part of the direct radiation emitted by the source reaching the upper surface or the food product (P) without being reflected along its path. - a supporting frame provided with a plurality of sides suited to define an internal compartment ; - a supporting plane with an upper surface positioned inside said compartment and suited to support the cooked food products ( P ) intended to be displayed and preserved; - heating means positioned inside said compartment above said plane supporting plane , said heating means being suited to heat said plane supporting plane to a predetermined temperature ( T ); wherein said heating means comprise at least one infrared source ; wherein it comprises a reflector element positioned inside said compartment and arranged under said infrared source , said reflector element being suited to at least partially reflect the infrared radiation emitted by said infrared source ; said reflector being configured to reflect only a portion of the infrared radiation emitted by said source and suited to reach said supporting plane in a direct manner; so as to shield a large area of said upper surface of said supporting plane from the direct infrared radiation generated by said source , the remaining part of the direct radiation emitted by the source reaching the upper surface or the food product (P) without being reflected along its path.
A glazing comprising: - first and second busbars for connection to an electrical supply; - a third busbar positioned between first and second busbars ; - a plurality of conductors electrically connected to the first busbar ; wherein: - a first group of conductors extends from the first busbar to the third busbar to form a first resistor (R1); - a second group of conductors extends from a side of the third busbar facing the second busbar and is electrically connected to the second busbar to form a second resistor (R2); - wherein fewer conductors extend from the side of the third busbar facing the second busbar than extend from a side of the third busbar facing the first busbar ; characterised by further comprising: - at least one gap on one side of the third busbar opposite a conductor on the other side; - an information acquisition area arranged between the third busbar and the second busbar ; wherein the at least one gap is positioned outside the information acquisition area . - first and second busbars for connection to an electrical supply; - a third busbar positioned between first and second busbars ; - a plurality of conductors electrically connected to the first busbar ; - a first group of conductors extends from the first busbar to the third busbar to form a first resistor (R1); - a second group of conductors extends from a side of the third busbar facing the second busbar and is electrically connected to the second busbar to form a second resistor (R2); - wherein fewer conductors extend from the side of the third busbar facing the second busbar than extend from a side of the third busbar facing the first busbar ; characterised by further comprising: - at least one gap on one side of the third busbar opposite a conductor on the other side; - an information acquisition area arranged between the third busbar and the second busbar ; - at least one gap on one side of the third busbar opposite a conductor on the other side; - an information acquisition area arranged between the third busbar and the second busbar ; wherein the at least one gap is positioned outside the information acquisition area .
A system for continuous measurement of an analyte in a host, the system including: a continuous analyte sensor configured to continuously measure a concentration of the analyte in the host; and a sensor electronics module physically connected to the continuous analyte sensor during sensor use, the sensor electronics module including electronics configured to process a data stream associated with an analyte concentration measured by the continuous analyte sensor in order to generate sensor information that includes raw sensor data, transformed sensor data, and/or other sensor data, wherein: the sensor electronics module is configured to receive a user-initiated NFC wakeup to switch the sensor electronics module from a low power storage mode to a higher power operational mode; once the sensor electronics module has been switched from the low power storage mode to the higher power operational mode, sensor initialization occurs during a period of time in which the sensor stabilizes after the insertion of the sensor; and the sensor electronics module is configured for periodic transmission of the sensor information to a display device. a continuous analyte sensor configured to continuously measure a concentration of the analyte in the host; and a sensor electronics module physically connected to the continuous analyte sensor during sensor use, the sensor electronics module including electronics configured to process a data stream associated with an analyte concentration measured by the continuous analyte sensor in order to generate sensor information that includes raw sensor data, transformed sensor data, and/or other sensor data, wherein: the sensor electronics module is configured to receive a user-initiated NFC wakeup to switch the sensor electronics module from a low power storage mode to a higher power operational mode; once the sensor electronics module has been switched from the low power storage mode to the higher power operational mode, sensor initialization occurs during a period of time in which the sensor stabilizes after the insertion of the sensor; and the sensor electronics module is configured for periodic transmission of the sensor information to a display device. the sensor electronics module is configured to receive a user-initiated NFC wakeup to switch the sensor electronics module from a low power storage mode to a higher power operational mode; once the sensor electronics module has been switched from the low power storage mode to the higher power operational mode, sensor initialization occurs during a period of time in which the sensor stabilizes after the insertion of the sensor; and the sensor electronics module is configured for periodic transmission of the sensor information to a display device.
Stacked high-blocking-voltage III-V power semiconductor diode , comprising - a p+ substrate layer with an upper side, a lower side and comprising a GaAs compound or consisting of GaAs, - a p- layer with an upper side, a lower side and comprising a GaAs compound or consisting of GaAs, - an n- region with an upper side, a lower side, a layer thickness (D20) of 10 μm - 150 μm and comprising a GaAs compound or consisting of GaAs, - an n+ layer with an upper side, a lower side and comprising a GaAs compound or consisting of GaAs, - a first metallic contact layer and a second metallic contact layer , wherein - the first metallic contact layer is connected by material couple with the lower side of the p+ substrate layer , - the second metallic contact layer is connected by material couple with the upper side of the n+ layer , wherein the lower side of the n+ layer is arranged above the n- region and the lower side of the p- layer is arranged on the upper side of the p+ substrate layer, characterised in that - a hard mask layer with an upper side, a lower side and at least one seed opening is provided, wherein - the lower side of the hard mask layer is connected by material couple with the upper side of the p+ substrate layer or by material couple with the upper side of the player and - the n- region extends over an edge region , which adjoins the seed opening , of the upper side of the hard mask layer and above and within the seed opening and - the n- region is connected by material couple with the upper side of the player within the seed opening and with the hard mask layer in the edge region on the upper side of the hard mask layer . - a p+ substrate layer with an upper side, a lower side and comprising a GaAs compound or consisting of GaAs, - a p- layer with an upper side, a lower side and comprising a GaAs compound or consisting of GaAs, - an n- region with an upper side, a lower side, a layer thickness (D20) of 10 μm - 150 μm and comprising a GaAs compound or consisting of GaAs, - an n+ layer with an upper side, a lower side and comprising a GaAs compound or consisting of GaAs, - a first metallic contact layer and a second metallic contact layer , wherein - the first metallic contact layer is connected by material couple with the lower side of the p+ substrate layer , - the second metallic contact layer is connected by material couple with the upper side of the n+ layer , - a hard mask layer with an upper side, a lower side and at least one seed opening is provided, wherein - the lower side of the hard mask layer is connected by material couple with the upper side of the p+ substrate layer or by material couple with the upper side of the player and - the n- region extends over an edge region , which adjoins the seed opening , of the upper side of the hard mask layer and above and within the seed opening and - the n- region is connected by material couple with the upper side of the player within the seed opening and with the hard mask layer in the edge region on the upper side of the hard mask layer .
A rubber composition for additive manufacturing comprising: a liquid rubber, an amine-based urethane acrylate oligomer, and a monomer, wherein a total content of the amine-based urethane acrylate oligomer and the monomer is 30 parts by mass or more, per 100 parts by mass of the liquid rubber. a liquid rubber, an amine-based urethane acrylate oligomer, and a monomer, wherein a total content of the amine-based urethane acrylate oligomer and the monomer is 30 parts by mass or more, per 100 parts by mass of the liquid rubber.