mhurhangee/patent-ind-claim-en huggingface dataset:
Container holder assembly for use in a medicament delivery device, comprising - a tubular body elongated in an axial direction, said tubular body having a proximal end and an opposite distal end, and - a retaining member releasably arranged to said tubular body for securing an elongated container placed inside the tubular body, - said retaining member comprising a resilient structure capable of exerting an axial force on said container in said tubular body for holding the container in a fixed position inside the tubular body and thereby avoiding breakage or displacement of the container, - a distal end of said container protruding from a distal end of said tubular body and characterised in that the retaining member further comprises an annular housing arranged to accommodate said resilient structure and wherein said annular housing comprises attachment means for releasibly attaching to a proximal end of a medicament delivery device such that the distal end of said container is resiliently pressed against a stopping element of said delivery device, wherein the container comprises a shoulder portion abutting a proximal inner annular ledge of the tubular body , and wherein the resilient structure comprises at least one resilient washer and an annular spacer , and wherein said retaining member is capable of accommodating said tubular body such that a distal surface of the annular spacer abuts a circumferential flange of the tubular body, and wherein the container abuts the stopping element , the inner annular ledge is brought into abutment with the shoulder portion of the container, forcing the container against the stopping element . - a tubular body elongated in an axial direction, said tubular body having a proximal end and an opposite distal end, and - a retaining member releasably arranged to said tubular body for securing an elongated container placed inside the tubular body, - said retaining member comprising a resilient structure capable of exerting an axial force on said container in said tubular body for holding the container in a fixed position inside the tubular body and thereby avoiding breakage or displacement of the container, - a distal end of said container protruding from a distal end of said tubular body and
A system configured for image segmentation, comprising: - an image data interface configured to access an image of an anatomical structure of a patient, wherein the image is acquired by a first imaging modality; - a memory comprising instruction data representing a set of instructions; - a processor configured to communicate with the image data interface and the memory and to execute the set of instructions, wherein the set of instructions, when executed by the processor, cause the processor to: - segment the image to obtain a first segmentation of the anatomical structure of the patient; - access statistical data indicative of a structural difference in shape of the type of anatomical structure between a) images acquired by the first imaging modality and b) images acquired by a second imaging modality; and - based on the first segmentation and the statistical data, generate a second segmentation of the anatomical structure which represents an estimate of the structural shape of the anatomical structure of the patient in an image acquired by the second imaging modality. - an image data interface configured to access an image of an anatomical structure of a patient, wherein the image is acquired by a first imaging modality; - a memory comprising instruction data representing a set of instructions; - a processor configured to communicate with the image data interface and the memory and to execute the set of instructions, wherein the set of instructions, when executed by the processor, cause the processor to: - segment the image to obtain a first segmentation of the anatomical structure of the patient; - access statistical data indicative of a structural difference in shape of the type of anatomical structure between a) images acquired by the first imaging modality and b) images acquired by a second imaging modality; and - based on the first segmentation and the statistical data, generate a second segmentation of the anatomical structure which represents an estimate of the structural shape of the anatomical structure of the patient in an image acquired by the second imaging modality. - segment the image to obtain a first segmentation of the anatomical structure of the patient; - access statistical data indicative of a structural difference in shape of the type of anatomical structure between a) images acquired by the first imaging modality and b) images acquired by a second imaging modality; and - based on the first segmentation and the statistical data, generate a second segmentation of the anatomical structure which represents an estimate of the structural shape of the anatomical structure of the patient in an image acquired by the second imaging modality.
An insulated pipe comprising: an encasement pipe and a first inner pipe arranged inside said encasement pipe , at least one vacuum insulation panel comprising a porous core material and a multi-layer envelope encasing said porous core material , wherein said multi-layer envelope comprises at least one layer comprising a metal material, wherein said at least one vacuum insulation panel is arranged around the circumference of said first inner pipe , wherein said at least one vacuum insulation panel comprises an inward-facing side facing towards a longitudinal axis of said first inner pipe , an outward-facing side facing the opposite direction, and four side faces arranged between said inward-facing side and said outward-facing side, and said insulated pipe further comprising a polymer foam filling the space between said vacuum insulation panel and said encasement pipe , wherein at least at the portion of said multi-layer envelope located at said four side faces any layer comprising a metal material is at least one metallized polymer layer. an encasement pipe and a first inner pipe arranged inside said encasement pipe , at least one vacuum insulation panel comprising a porous core material and a multi-layer envelope encasing said porous core material , wherein said multi-layer envelope comprises at least one layer comprising a metal material, wherein said at least one vacuum insulation panel is arranged around the circumference of said first inner pipe , wherein said at least one vacuum insulation panel comprises an inward-facing side facing towards a longitudinal axis of said first inner pipe , an outward-facing side facing the opposite direction, and four side faces arranged between said inward-facing side and said outward-facing side, and wherein said multi-layer envelope comprises at least one layer comprising a metal material, wherein said at least one vacuum insulation panel is arranged around the circumference of said first inner pipe , wherein said at least one vacuum insulation panel comprises an inward-facing side facing towards a longitudinal axis of said first inner pipe , an outward-facing side facing the opposite direction, and four side faces arranged between said inward-facing side and said outward-facing side, and said insulated pipe further comprising a polymer foam filling the space between said vacuum insulation panel and said encasement pipe , wherein at least at the portion of said multi-layer envelope located at said four side faces any layer comprising a metal material is at least one metallized polymer layer.
Self-balancing, single-axle running-gear unit , comprising - a movement module having a drive axle on which two drive wheels are mounted so as to be rotatable, and a drive which can be coupled with the two drive wheels, - a load-carrying module having a first arm , which extends from the movement module , and a second arm having a first end , which is articulated with the first arm , and a second end , to which a load-receiving interface is fitted, - a stair-climbing module having two spoke stars which are mounted so as to be rotatable about the drive axle , wherein each spoke star has a plurality of radially extending carrying spokes which are arranged offset in the circumferential direction and have a radially outer, free end to which a ground contact element is fitted, and wherein a spoke star is arranged laterally next to each of the drive wheels , and - a controller which contains an inclination sensor and/or an acceleration sensor and is configured, by controlled application of a torque to the drive wheels and/or to the spoke stars , to prevent or to limit tilting of the load-receiving interface relative to a vertical (V) running, in an initial state, through the load-receiving interface . - a movement module having a drive axle on which two drive wheels are mounted so as to be rotatable, and a drive which can be coupled with the two drive wheels, - a load-carrying module having a first arm , which extends from the movement module , and a second arm having a first end , which is articulated with the first arm , and a second end , to which a load-receiving interface is fitted, - a stair-climbing module having two spoke stars which are mounted so as to be rotatable about the drive axle , wherein each spoke star has a plurality of radially extending carrying spokes which are arranged offset in the circumferential direction and have a radially outer, free end to which a ground contact element is fitted, and wherein a spoke star is arranged laterally next to each of the drive wheels , and - a controller which contains an inclination sensor and/or an acceleration sensor and is configured, by controlled application of a torque to the drive wheels and/or to the spoke stars , to prevent or to limit tilting of the load-receiving interface relative to a vertical (V) running, in an initial state, through the load-receiving interface .
A modular decking system comprising: - a decking panel ; - a plurality of vertical supports ; - at least two first horizontal supports ; - at least two second horizontal supports arranged perpendicular to the first horizontal supports , - one or more third horizontal supports arranged between the first horizontal supports and parallel to the second horizontal supports , and - a plurality of connectors for detachably coupling the first and second horizontal supports , , the connectors comprising a connection hub having formations that enable the connection hub to slidingly engage with a reciprocating formation , present at the end of the first and second horizontal supports , , a base plate , a top plate and an elongate tube adapted for insertion into the vertical supports which protrudes beyond the top plate, whereby the formations are welded to the elongate tube , extend axially between the top plate and the base plate and are arranged around the periphery of the elongate tube , the reciprocating formations , at the respective ends of the first and second horizontal supports , are slidingly engaged with the formations of the connection hub and the top plate is adapted to accommodate the formations and comprises correspondingly shaped cut outs. - a decking panel ; - a plurality of vertical supports ; - at least two first horizontal supports ; - at least two second horizontal supports arranged perpendicular to the first horizontal supports , - one or more third horizontal supports arranged between the first horizontal supports and parallel to the second horizontal supports , and - a plurality of connectors for detachably coupling the first and second horizontal supports , , the connectors comprising a connection hub having formations that enable the connection hub to slidingly engage with a reciprocating formation , present at the end of the first and second horizontal supports , , a base plate , a top plate and an elongate tube adapted for insertion into the vertical supports which protrudes beyond the top plate, whereby the formations are welded to the elongate tube , extend axially between the top plate and the base plate and are arranged around the periphery of the elongate tube , the reciprocating formations , at the respective ends of the first and second horizontal supports , are slidingly engaged with the formations of the connection hub and the top plate is adapted to accommodate the formations and comprises correspondingly shaped cut outs.
A medical implant device , comprising: a light source and a light sensor ; and a housing configured to receive the light source and the light sensor, the housing comprising: a first wall portion configured to be positioned over an extraluminal surface of a coronary sinus, the first wall portion comprising a first surface oriented toward the extraluminal surface, a first light-transparent region of the first wall portion configured to allow passage therethrough of an emitted light signal from the light source into the coronary sinus, and a second light-transparent region of the first wall portion configured to allow passage therethrough of a reflected light signal from within the coronary sinus for detection by the light sensor. a light source and a light sensor ; and a housing configured to receive the light source and the light sensor, the housing comprising: a first wall portion configured to be positioned over an extraluminal surface of a coronary sinus, the first wall portion comprising a first surface oriented toward the extraluminal surface, a first light-transparent region of the first wall portion configured to allow passage therethrough of an emitted light signal from the light source into the coronary sinus, and a second light-transparent region of the first wall portion configured to allow passage therethrough of a reflected light signal from within the coronary sinus for detection by the light sensor. a first wall portion configured to be positioned over an extraluminal surface of a coronary sinus, the first wall portion comprising a first surface oriented toward the extraluminal surface, a first light-transparent region of the first wall portion configured to allow passage therethrough of an emitted light signal from the light source into the coronary sinus, and a second light-transparent region of the first wall portion configured to allow passage therethrough of a reflected light signal from within the coronary sinus for detection by the light sensor.
A detector comprising: an ionization chamber comprising: a first electrode ; a second electrode ; and an ionization chamber gas ; a detector chamber comprising: a converter unit adapted to convert incident radiation into electrons ; an electron amplification device adapted to produce further electrons from said electrons ; a read-out device adapted to generate a signal representative of said incident radiation ; and a detector chamber gas , wherein said ionization chamber is arranged upstream of said detector chamber with regard to a direction of said incident radiation ; and a signal processor adapted to generate a corrected signal by correcting said signal representative of said incident radiation based on a current signal representative of an ionization current measured between said first electrode and said second electrode and induced by said incident radiation . an ionization chamber comprising: a first electrode ; a second electrode ; and an ionization chamber gas ; a first electrode ; a second electrode ; and an ionization chamber gas ; a detector chamber comprising: a converter unit adapted to convert incident radiation into electrons ; an electron amplification device adapted to produce further electrons from said electrons ; a read-out device adapted to generate a signal representative of said incident radiation ; and a detector chamber gas , wherein said ionization chamber is arranged upstream of said detector chamber with regard to a direction of said incident radiation ; and a converter unit adapted to convert incident radiation into electrons ; an electron amplification device adapted to produce further electrons from said electrons ; a read-out device adapted to generate a signal representative of said incident radiation ; and a detector chamber gas , wherein said ionization chamber is arranged upstream of said detector chamber with regard to a direction of said incident radiation ; and a signal processor adapted to generate a corrected signal by correcting said signal representative of said incident radiation based on a current signal representative of an ionization current measured between said first electrode and said second electrode and induced by said incident radiation .
A process for producing an optical effect layer (OEL) on a substrate, said process comprising the steps of: a) applying on a substrate surface a coating composition comprising i) platelet-shaped magnetic or magnetisable pigment particles and ii) a binder material, said coating composition being in a first state, b) exposing the coating composition to a dynamic magnetic field of a first magnetic-field-generating device so as to bi-axially orient at least a part of the platelet-shaped magnetic or magnetisable pigment particles, c) exposing the coating composition of step b) to a static magnetic field of a second magnetic-field-generating device, thereby mono-axially re-orienting at least a part of the platelet-shaped magnetic or magnetisable pigment particles, and d) hardening the coating composition of step c) to a second state so as to fix the platelet-shaped magnetic or magnetisable pigment particles in their adopted positions and orientations. a) applying on a substrate surface a coating composition comprising i) platelet-shaped magnetic or magnetisable pigment particles and ii) a binder material, said coating composition being in a first state, b) exposing the coating composition to a dynamic magnetic field of a first magnetic-field-generating device so as to bi-axially orient at least a part of the platelet-shaped magnetic or magnetisable pigment particles, c) exposing the coating composition of step b) to a static magnetic field of a second magnetic-field-generating device, thereby mono-axially re-orienting at least a part of the platelet-shaped magnetic or magnetisable pigment particles, and d) hardening the coating composition of step c) to a second state so as to fix the platelet-shaped magnetic or magnetisable pigment particles in their adopted positions and orientations.
A device having a sealing device , in which at least one deformable sealing body is arranged between a front panel element and a cover panel element and at least one fastening unit holds the front panel element , the sealing body and the cover panel element together in a longitudinal direction (x) of the sealing device , characterized in that the sealing body and the cover panel element are arranged in a longitudinal direction (x) of the sealing device and in that the sealing body and the cover panel element are arranged in a longitudinal direction (x) of the sealing device , in characterized in that the device comprises at least one C-rail element and at least one wall element which is arranged crosswise to a longitudinal opening of the at least one C-rail element , the sealing device being arranged in the longitudinal direction (x) in an interior space of the C-rail element and being bordered with the sealing body to the wall element , and the sealing body in a deformed state sealing an interior space of the C-rail element with respect to the wall element .
A radiation imaging device comprising: a radiation detection panel having a first surface on which a detection region (R) for detecting radiation is formed and a second surface a side opposite to the first surface; a base substrate having a support surface configured to face the second surface of the radiation detection panel and configured to support the radiation detection panel; and a housing configured to accommodate the radiation detection panel and the base substrate, wherein the housing has a first wall portion which faces the first surface and a second wall portion which faces the second surface, the base substrate has a protruding portion which protrudes further outward than the radiation detection panel when seen in a first direction orthogonal to the support surface, a first extending portion configured to extend in the first direction is provided on the support surface of the protruding portion, a second extending portion disposed at a position at which the second extending portion faces the first extending portion with the protruding portion interposed therebetween and configured to extend in the first direction is provided on a surface of the protruding portion on a side opposite to the support surface, and the base substrate is supported on the first wall portion via the first extending portion and is supported on the second wall portion via the second extending portion. a radiation detection panel having a first surface on which a detection region (R) for detecting radiation is formed and a second surface a side opposite to the first surface; a base substrate having a support surface configured to face the second surface of the radiation detection panel and configured to support the radiation detection panel; and a housing configured to accommodate the radiation detection panel and the base substrate, wherein the housing has a first wall portion which faces the first surface and a second wall portion which faces the second surface, the base substrate has a protruding portion which protrudes further outward than the radiation detection panel when seen in a first direction orthogonal to the support surface, a first extending portion configured to extend in the first direction is provided on the support surface of the protruding portion, a second extending portion disposed at a position at which the second extending portion faces the first extending portion with the protruding portion interposed therebetween and configured to extend in the first direction is provided on a surface of the protruding portion on a side opposite to the support surface, and the base substrate is supported on the first wall portion via the first extending portion and is supported on the second wall portion via the second extending portion.