mhurhangee/patent-ind-claim-en huggingface dataset:
Osteoinductive implant free from a carrier comprising a coherent mass of milled and lyophilized demineralized bone matrix fibers comprising autograft or allograft bone; wherein the fibers are elongated and curled; wherein the fibers include frayed and/or hooked portions along the edges; wherein the fibers forming the coherent mass are porous allowing liquid to pass through the coherent mass and are molded into a cylindrical shape including a first end having a first diameter and a second end having a second diameter, the first diameter being wider or the same as the second diameter; wherein hydration channels extend through at least a portion of the coherent mass, the hydration channels being configured to facilitate entrance of a hydrating liquid; and wherein the hydration channels include a rounded inner surface formed from drilling or pressing. wherein the fibers are elongated and curled; wherein the fibers include frayed and/or hooked portions along the edges; wherein the fibers forming the coherent mass are porous allowing liquid to pass through the coherent mass and are molded into a cylindrical shape including a first end having a first diameter and a second end having a second diameter, the first diameter being wider or the same as the second diameter; wherein hydration channels extend through at least a portion of the coherent mass, the hydration channels being configured to facilitate entrance of a hydrating liquid; and wherein the hydration channels include a rounded inner surface formed from drilling or pressing.
Holder for a rotary tool , for example a hole saw, which holder is formed with an essentially rotationally symmetrical holder body comprising a rear drive end , for example adapted to be clamped in a chuck of a drilling machine, and a front connection end having a connection thread for the connection of the rotary tool , the holder comprising an axially movable thrust collar which is placed at the connection end and around the same and which has a contact surface facing the connection end of the holder and wherein the contact surface at least partly, directly, or indirectly, abuts against the assembled rotary tool , wherein the holder furthermore comprises an axially movable operating means assembled around the holder body and a number of restraint elements placed in one or more spaces in the holder body and which restraint elements in a first axial position of the operating means are prevented by the operating means from radial movement in said spaces and which restraint elements in a second axial position of the operating means are free to make a radial movement in said spaces , characterized in that the restraint elements upon said radial movement also are displaced a distance (G) in the axial direction and that each one of said spaces for the restraint elements is limited in the axial direction by a front limiting wall as well as by a rear limiting wall , which two limiting walls constitute parts of the holder body .
A method for recovering magnesium ammonium phosphate from sludge supplied to a first reaction tank in which an aerobic environment alkaline due to CO 2 stripping prevails and in which the sludge is guided in a cycle supported by aeration, with cationic magnesium such as magnesium chloride being added to the sludge and magnesium ammonium phosphate crystals crystallized out of the sludge being removed via an extraction device provided in the floor area of the first reaction tank, wherein sludge is supplied from the first reactor tank via a first line to a second reactor tank in which an anaerobic environment is set for phosphorus redissolution, and MAP crystals crystallized out in the second reaction tank are supplied to the first reaction tank.
Electrically heatable pane with a switch region , at least comprising: - a transparent substrate with a surface (III), - at least one transparent, electrically conductive layer , which is arranged at least on a part of the surface (III), - at least one separating line (4.1) that electrically divides the layer into a heating region and a switch region , wherein - the switch region has at least one contact region , a feed line region , and a connection region such that the contact region , the feed line region , and the connection region are contiguous regions of the layer , - the feed line region electrically connects the contact region to the connection region , - the connection region can be electrically connected to sensor electronics , characterized in that at least two busbars (5.1,5.2) provided for connection to a voltage source that are connected to the heating region such that a current path for a heating current is formed between the busbars (5.1,5.2), and in that at least one additional separating line (4.2) electrically divides the layer into a surrounding region , which surrounds the switch region at least partially and preferably completely. - a transparent substrate with a surface (III), - at least one transparent, electrically conductive layer , which is arranged at least on a part of the surface (III), - at least one separating line (4.1) that electrically divides the layer into a heating region and a switch region , - the switch region has at least one contact region , a feed line region , and a connection region such that the contact region , the feed line region , and the connection region are contiguous regions of the layer , - the feed line region electrically connects the contact region to the connection region , - the connection region can be electrically connected to sensor electronics ,
An electrosurgical instrument configured to ablate duodenal mucosal tissue, the instrument comprising: a flexible coaxial cable for conveying microwave energy from a generator located externally to the patient to a treatment site located inside a patient's duodenum; and an applicator located at a distal end of the flexible coaxial cable, the applicator having an energy delivery structure connected to receive microwave energy from the coaxial cable and to deliver the received microwave energy into biological tissue at the treatment site, wherein the applicator includes a radially extendable balloon arranged to move the energy delivery structure into contact with duodenal mucosal tissue at the treatment region, and wherein the energy delivery structure comprises: an internal conductive element disposed within a volume enclosed by the balloon, the internal conductive element being electrically connected to an inner conductor of the flexible coaxial cable to launch the microwave energy into biological tissue at the treatment site; characterised in that the energy delivery structure further comprises an outer conductive structure formed on an outer surface of the balloon, the outer conductive structure being electrically connected to an outer conductor of the flexible coaxial cable. a flexible coaxial cable for conveying microwave energy from a generator located externally to the patient to a treatment site located inside a patient's duodenum; and an applicator located at a distal end of the flexible coaxial cable, the applicator having an energy delivery structure connected to receive microwave energy from the coaxial cable and to deliver the received microwave energy into biological tissue at the treatment site, wherein the applicator includes a radially extendable balloon arranged to move the energy delivery structure into contact with duodenal mucosal tissue at the treatment region, and wherein the energy delivery structure comprises: an internal conductive element disposed within a volume enclosed by the balloon, the internal conductive element being electrically connected to an inner conductor of the flexible coaxial cable to launch the microwave energy into biological tissue at the treatment site; characterised in that the energy delivery structure further comprises an outer conductive structure formed on an outer surface of the balloon, the outer conductive structure being electrically connected to an outer conductor of the flexible coaxial cable. an internal conductive element disposed within a volume enclosed by the balloon, the internal conductive element being electrically connected to an inner conductor of the flexible coaxial cable to launch the microwave energy into biological tissue at the treatment site; characterised in that the energy delivery structure further comprises an outer conductive structure formed on an outer surface of the balloon, the outer conductive structure being electrically connected to an outer conductor of the flexible coaxial cable.
A cutting insert having an insert longitudinal axis (A IL ) and comprising opposing insert top and bottom surfaces , opposing insert first and second end surfaces (14C1, 14C2) extending transverse to the insert longitudinal axis (A IL ), each end surface connected to the insert top and bottom surfaces , opposing insert first and second side surfaces (14D1, 14D2) extending along the insert longitudinal axis (A IL ), each side surface connected to the insert top and bottom surfaces and to the insert first and second end surfaces (14C1, 14C2), an insert first intersection (14G1) defined at an intersection of the insert top surface , the insert first end surface (14C1) and the insert first side surface (14D1), an insert second intersection (14H1) defined at an intersection of the insert top surface , the insert first end surface (14C1) and the insert second side surface (14D2), a cutting edge (14F1) extending from the insert first intersection (14G1) to the insert second intersection (14H1), and an insert aperture opening out to the insert top and bottom surfaces ; the insert aperture comprising opposing aperture first and second side surfaces (32A1, 32A2) extending along the insert longitudinal axis (A IL ), and opposing aperture first and second end surfaces (32B1, 32B2) extending transverse to the insert longitudinal axis (A IL ), and each being connected to the aperture first and second side surfaces (32A1, 32A2); wherein, in a plan view of the insert top surface , the cutting insert and the insert aperture both have oblong shapes which are elongated along the insert longitudinal axis (A IL ) ; wherein at least one of the aperture first and second end surfaces (32B1, 32B2) is formed with a clamping lip (32C1, 32C2); characterised in that each of the aperture first and second side surfaces (32A1, 32A2) is devoid of a clamping lip. opposing insert top and bottom surfaces , opposing insert first and second end surfaces (14C1, 14C2) extending transverse to the insert longitudinal axis (A IL ), each end surface connected to the insert top and bottom surfaces , opposing insert first and second side surfaces (14D1, 14D2) extending along the insert longitudinal axis (A IL ), each side surface connected to the insert top and bottom surfaces and to the insert first and second end surfaces (14C1, 14C2), an insert first intersection (14G1) defined at an intersection of the insert top surface , the insert first end surface (14C1) and the insert first side surface (14D1), an insert second intersection (14H1) defined at an intersection of the insert top surface , the insert first end surface (14C1) and the insert second side surface (14D2), a cutting edge (14F1) extending from the insert first intersection (14G1) to the insert second intersection (14H1), and an insert aperture opening out to the insert top and bottom surfaces ; opposing aperture first and second side surfaces (32A1, 32A2) extending along the insert longitudinal axis (A IL ), and opposing aperture first and second end surfaces (32B1, 32B2) extending transverse to the insert longitudinal axis (A IL ), and each being connected to the aperture first and second side surfaces (32A1, 32A2);
Method of assembling a timepiece comprising a watch movement and a water-resistant case , the method comprising the following stages: - a first stage of closing the case by fitting and securing a first case element , more particularly a back , and then - a second stage of closing the case by actuation of a second case element , the second case element being a winding stem , the second case element being mobile between a first configuration, in which a fluid communication between the interior of the case and an environment outside the case is permitted, and a second configuration adapted to ensure the sealing integrity of the case, the second stage of closing being an actuation of the passage of the second element from the first configuration to the second configuration. - a first stage of closing the case by fitting and securing a first case element , more particularly a back , and then - a second stage of closing the case by actuation of a second case element , the second case element being a winding stem , the second case element being mobile between a first configuration, in which a fluid communication between the interior of the case and an environment outside the case is permitted, and a second configuration adapted to ensure the sealing integrity of the case,
Multi-layered structure for the production of a floor or wall covering, the structure comprising: - a first assembly (E) successively comprising at least: ∗ a transparent wear layer (E1) made of polyvinyl chloride; ∗ a decorative layer (E2) bonded to the wear layer (El); ∗ a backing layer (E3), bonded to the decorative layer (E2), made of plasticized and loaded polyvinyl chloride; - a foam layer , bonded to the backing layer (E3), imparting sound-insulating properties to the structure, and having a lower face intended to be in contact with the floor or wall; characterized in that : - the first assembly (E) comprises a tensile modulus for 1% elongation greater than 5 MPa, and a flexural modulus at 3.5% between 10 MPa and 20 MPa, measured in accordance with the ISO 178:2019 standard; - the foam layer is a cross-linked polyolefin foam layer, having a thickness between 0.5 mm and 2 mm, and a density between 60 kg/m 3 and 120 kg/m 3 . - a first assembly (E) successively comprising at least: ∗ a transparent wear layer (E1) made of polyvinyl chloride; ∗ a decorative layer (E2) bonded to the wear layer (El); ∗ a backing layer (E3), bonded to the decorative layer (E2), made of plasticized and loaded polyvinyl chloride; ∗ a transparent wear layer (E1) made of polyvinyl chloride; ∗ a decorative layer (E2) bonded to the wear layer (El); ∗ a backing layer (E3), bonded to the decorative layer (E2), made of plasticized and loaded polyvinyl chloride; - a foam layer , bonded to the backing layer (E3), imparting sound-insulating properties to the structure, and having a lower face intended to be in contact with the floor or wall; - the first assembly (E) comprises a tensile modulus for 1% elongation greater than 5 MPa, and a flexural modulus at 3.5% between 10 MPa and 20 MPa, measured in accordance with the ISO 178:2019 standard; - the foam layer is a cross-linked polyolefin foam layer, having a thickness between 0.5 mm and 2 mm, and a density between 60 kg/m 3 and 120 kg/m 3 .
A roof window system comprising at least two window units configured to be built in side by side, separated by a pre-defined spacing (SP), in a roof structure of a roof, in particular comprising an inclined roof surface, each window unit comprising a top member , two side members , and a bottom member , said roof window system furthermore comprising a cover assembly spanning the spacing (SP) between facing side members of neighbouring window units in the mounted condition of the roof window system , characterised in that the cover assembly comprises a set of receiver brackets configured to be connected to the facing side members of neighbouring window units and a cover plate configured to be brought into releasable engagement with the set of receiver brackets .
A method for pre-launching an application using interprocess communication, the method comprising: executing a first application as a foreground process of an operating system of a computing device ; displaying , by the first application , content on a display of the computing device , the content being associated with an action executable by a second application ; and transmitting , by the first application , an initialization request to an initialization application programming interface, API , of the second application in advance of a user action taken with respect to the content displayed on the display , the initialization request configured to establish an interprocess communication connection between the first application and the second application to enable the first application and the second application to communicate with each other, and to cause the second application to be launched as a background process of the operating system of the computing device , characterized in that , in response to the interprocess communication connection being established, the foreground process binds to the background process so that the background process is given, by the operating system , a memory priority that corresponds to a memory priority of the foreground process . executing a first application as a foreground process of an operating system of a computing device ; displaying , by the first application , content on a display of the computing device , the content being associated with an action executable by a second application ; and transmitting , by the first application , an initialization request to an initialization application programming interface, API , of the second application in advance of a user action taken with respect to the content displayed on the display , the initialization request configured to establish an interprocess communication connection between the first application and the second application to enable the first application and the second application to communicate with each other, and to cause the second application to be launched as a background process of the operating system of the computing device ,
Motor vehicle having a data network , via which several control devices of the motor vehicle are coupled with another for exchanging message data , wherein the data network is divided into different domains and via each of the domains in each case several of the control devices are coupled to the data network and in this regard in each domain in each case other ones of the control devices are contained and domain transitions are formed respectively by one gateway and the gateway blocks the exchange of message data between the control devices of different domains or is permitted only depending on an authorisation provided at least one domain transition , wherein the data network has additionally a total domain and each of the control devices is coupled additionally via the total domain to the data network , wherein the total domain is an additional address space, characterised in that in the total domain is provided only an unidirectional communication from a control device (SIM), which is entitled to send, to the remaining control devices and in the total domain the remaining control devices accept only those message data as valid which were sent from the control device (SIM) which is entitled to send.
A manufacturing device for laminating a top fabric on a vehicle component or a component (B), the manufacturing device preferably comprising a transport system drivable on a ground surface or a stage system, which has a component mount on an upper side facing away from the ground surface, and a top fabric laminating means movable across the component mount by means of a handling means, which has a holding means for gripping a top fabric, and a pressure chamber delimited by an elastic membrane (M) for generating a process pressure by means of the membrane (M) on a surface side of the top fabric, in particular on that surface side of the top fabric which forms the later visible side of the top fabric on the vehicle component, characterized in that the top fabric laminating means further has a vacuum blade to generate a vacuum at its free blade end .
A method of wireless communication, comprising: communicating (502, 510a; 504, 510b; 610, 620), by a base station, BS, with a user equipment, UE, in a first frequency band allocated to a first radio access technology, RAT, first data using the first RAT; reconfiguring , by the BS, a resource in a second frequency band allocated to a second RAT different from the first RAT from implementing a configuration of the second RAT to implementing a configuration of the first RAT, wherein the configuration of the first RAT includes a first numerology, the configuration of the second RAT includes a second numerology different from the first numerology, and wherein the reconfiguring includes converting the resource from the second numerology to the first numerology; transmitting (506; 650), by the BS to the UE in the first frequency band, a grant indicating the resource implementing the configuration of the first RAT for communicating second data; and communicating (510c; 660), by the BS with the UE in the second frequency band, the second data using the resource implementing the configuration of the first RAT. communicating (502, 510a; 504, 510b; 610, 620), by a base station, BS, with a user equipment, UE, in a first frequency band allocated to a first radio access technology, RAT, first data using the first RAT; reconfiguring , by the BS, a resource in a second frequency band allocated to a second RAT different from the first RAT from implementing a configuration of the second RAT to implementing a configuration of the first RAT, wherein the configuration of the first RAT includes a first numerology, the configuration of the second RAT includes a second numerology different from the first numerology, and wherein the reconfiguring includes converting the resource from the second numerology to the first numerology; transmitting (506; 650), by the BS to the UE in the first frequency band, a grant indicating the resource implementing the configuration of the first RAT for communicating second data; and communicating (510c; 660), by the BS with the UE in the second frequency band, the second data using the resource implementing the configuration of the first RAT.