mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a network interface configured to receive communications forming part of a communication chain; at least one processor; and at least one memory including computer program code, the computer program code being configured to, when run on the at least one processor, cause the apparatus to: present a notification of one of the communications of the communication chain received via the network interface; characterized in that: the apparatus further comprises a timer; and the computer program code is further configured to, when run on the at least one processor, cause the apparatus to: provide a user interface (204, 501) configured to receive an input in response to the presented notification that dismisses the notification; and suspend, until a predetermined event occurs, the presentation of at least one type of notification of a further received communication relating to the communication chain in dependence on said input, wherein the predetermined event is the expiration of the timer. a network interface configured to receive communications forming part of a communication chain; at least one processor; and at least one memory including computer program code, the computer program code being configured to, when run on the at least one processor, cause the apparatus to: present a notification of one of the communications of the communication chain received via the network interface; characterized in that: the apparatus further comprises a timer; and the computer program code is further configured to, when run on the at least one processor, cause the apparatus to: provide a user interface (204, 501) configured to receive an input in response to the presented notification that dismisses the notification; and suspend, until a predetermined event occurs, the presentation of at least one type of notification of a further received communication relating to the communication chain in dependence on said input, wherein the predetermined event is the expiration of the timer. the apparatus further comprises a timer; and the computer program code is further configured to, when run on the at least one processor, cause the apparatus to: provide a user interface (204, 501) configured to receive an input in response to the presented notification that dismisses the notification; and suspend, until a predetermined event occurs, the presentation of at least one type of notification of a further received communication relating to the communication chain in dependence on said input, wherein the predetermined event is the expiration of the timer. provide a user interface (204, 501) configured to receive an input in response to the presented notification that dismisses the notification; and suspend, until a predetermined event occurs, the presentation of at least one type of notification of a further received communication relating to the communication chain in dependence on said input, wherein the predetermined event is the expiration of the timer.
An electricity measuring type surface plasmon resonance sensor for measuring a sample as measurement target, comprising: a plasmon polariton intensifying sensor chip (110; 120; 130; 140; 150) in which a prism and a sensor chip (11; 12; 13), the sensor chip (11; 12; 13) including a transparent electrode, an n-type transparent semiconductor film, and a plasmon resonance film electrode arranged in this order, are arranged in an order of the prism, the transparent electrode, the n-type transparent semiconductor film, and the plasmon resonance film electrode; and an electric measuring apparatus which is capable of directly measuring a current or voltage from the transparent electrode and the plasmon resonance film electrode, wherein, in use, the sample is in the vicinity of the plasmon resonance film electrode, wherein the prism is configured to control an angle of an incident light so as to allow the incident light to totally reflect between the plasmon resonance film electrode and the n-type transparent semiconductor film. a plasmon polariton intensifying sensor chip (110; 120; 130; 140; 150) in which a prism and a sensor chip (11; 12; 13), the sensor chip (11; 12; 13) including a transparent electrode, an n-type transparent semiconductor film, and a plasmon resonance film electrode arranged in this order, are arranged in an order of the prism, the transparent electrode, the n-type transparent semiconductor film, and the plasmon resonance film electrode; and an electric measuring apparatus which is capable of directly measuring a current or voltage from the transparent electrode and the plasmon resonance film electrode, wherein, in use, the sample is in the vicinity of the plasmon resonance film electrode, wherein the prism is configured to control an angle of an incident light so as to allow the incident light to totally reflect between the plasmon resonance film electrode and the n-type transparent semiconductor film.
Control module for a blower for a heating and/or ventilation and/or air conditioning installation, in particular for a motor vehicle, the blower being configured to generate an air flow and the control module being configured to control the blower and comprises: - a heat sink, - a heat dissipation pad and - at least one active electronic power component mounted on the heat dissipation pad, characterized in that: - the heat sink comprises a slot for receiving at least a portion of the heat dissipation pad, and in that - the heat dissipation pad is mounted by force fitting in said slot. - a heat sink, - a heat dissipation pad and - at least one active electronic power component mounted on the heat dissipation pad, - the heat sink comprises a slot for receiving at least a portion of the heat dissipation pad, and in that - the heat dissipation pad is mounted by force fitting in said slot.
A refrigerator comprising: a cabinet to which one or more doors forming a storage compartment therewith are coupled; a first fan assembly positioned on an interior surface of a first cabinet wall of said storage compartment; a second fan assembly positioned on the interior surface of a second cabinet wall of the storage compartment, wherein said second cabinet wall opposes the first cabinet wall, wherein the first and second fan assemblies (26, 38) each comprise: one or more circulation fans; a filter made from a polymer fiber, said filter being coupled to a UV activated photocatalyst to form an activated filter; and a plurality of LEDs positioned to project UV light onto said activated filter; and an air circulation path configured to direct airborne bacteria and particulate matter within the storage compartment contemporaneously into the first and second fan assemblies (26, 38) using the one or more circulation fans and circulate filtered air into the storage compartment through the activated filter disposed in the air circulation path, wherein the activated filter is an activated carbon filter including an activated carbon and/or carbon black particles, and wherein said activated carbon filter is coupled to a titanium oxide (TiO 2) doped sol gel. a cabinet to which one or more doors forming a storage compartment therewith are coupled; a first fan assembly positioned on an interior surface of a first cabinet wall of said storage compartment; a second fan assembly positioned on the interior surface of a second cabinet wall of the storage compartment, wherein said second cabinet wall opposes the first cabinet wall, wherein the first and second fan assemblies (26, 38) each comprise: one or more circulation fans; a filter made from a polymer fiber, said filter being coupled to a UV activated photocatalyst to form an activated filter; and a plurality of LEDs positioned to project UV light onto said activated filter; and one or more circulation fans; a filter made from a polymer fiber, said filter being coupled to a UV activated photocatalyst to form an activated filter; and a plurality of LEDs positioned to project UV light onto said activated filter; and an air circulation path configured to direct airborne bacteria and particulate matter within the storage compartment contemporaneously into the first and second fan assemblies (26, 38) using the one or more circulation fans and circulate filtered air into the storage compartment through the activated filter disposed in the air circulation path, wherein the activated filter is an activated carbon filter including an activated carbon and/or carbon black particles, and wherein said activated carbon filter is coupled to a titanium oxide (TiO 2) doped sol gel.
A method of scanning a plurality of ports at one or more target IP addresses, each of the plurality of ports corresponding to a port number at one of the one or more target IP addresses, wherein the one or more target IP addresses are part of a network monitored for port probe requests to IP addresses in the network by a security appliance that identifies traffic as suspicious if packets are received by the network from a source IP address at a rate of more than a source threshold rate, wherein the method comprises: assigning each port to one of a plurality of sets of ports; characterized by executing, on a common machine, a plurality of port scanning processes (206, 302, 304, 306) at the same time, wherein each port scanning process sends port probe requests to the ports of a respective set of the plurality of sets from a different respective source IP address and wherein each of the plurality of port scanning processes sends port probe requests to the ports of the respective set at a respective probe rate, wherein each respective probe rate is set to less than or equal to the source threshold rate. assigning each port to one of a plurality of sets of ports; characterized by executing, on a common machine, a plurality of port scanning processes (206, 302, 304, 306) at the same time, wherein each port scanning process sends port probe requests to the ports of a respective set of the plurality of sets from a different respective source IP address and wherein each of the plurality of port scanning processes sends port probe requests to the ports of the respective set at a respective probe rate, wherein each respective probe rate is set to less than or equal to the source threshold rate.
Magnet device consisting of a drive tool and a magnetically influenceable locking ram above this located in a protective housing and having a guide pin that is adjustable in the direction of its longitudinal axis by rotating and to which together with this rotatable guide pin a circular diametrally magnetised magnet part is fixed, whereby the drive tool has a drive magnet part that influences the magnet part as part of the magnet device, whereby the protective housing together with the locking ram, the guide pin and the magnet part forms another part of the magnet device, characterised in that several diametrally magnetised rod magnets (10, 11, 12) serving as the magnet part are positioned around the guide pin fixed at the guide pin and showing with their respective separating layer plane between the respective north and south pole (N/S) towards the central axis of the guide pin and are arranged running in the direction of the central axis, and alternately influenceable by the drive magnet part.
An intragastric device comprising: a porous structure comprising a top, a bottom, and an interior and having a pre-deployment shape with a first volume and a post-deployment shape with a second volume greater than said first volume, wherein, in said post-deployment shape, said porous structure includes at least one first opening proximate said top and at least one second opening proximate said bottom; and an anti-migration component positioned proximate said bottom of said porous structure, wherein said anti-migration component comprises a compressed pre-deployment configuration and an expanded post-deployment configuration and is adapted to be positioned proximal to a patient's pylorus and adapted to prevent migration of the porous structure into and through said pylorus; and when in said post-deployment configuration, said porous structure comprises a wire mesh structure and characterised in that said wire mesh structure comprises different wire mesh weave patterns. a porous structure comprising a top, a bottom, and an interior and having a pre-deployment shape with a first volume and a post-deployment shape with a second volume greater than said first volume, wherein, in said post-deployment shape, said porous structure includes at least one first opening proximate said top and at least one second opening proximate said bottom; and an anti-migration component positioned proximate said bottom of said porous structure, wherein said anti-migration component comprises a compressed pre-deployment configuration and an expanded post-deployment configuration and is adapted to be positioned proximal to a patient's pylorus and adapted to prevent migration of the porous structure into and through said pylorus; and when in said post-deployment configuration, said porous structure comprises a wire mesh structure and characterised in that said wire mesh structure comprises different wire mesh weave patterns.
Method for winding a winding support, more particularly of a stator of an electric machine, using the needle-winding technique, which winding support has teeth and slots alternately in a circumferential direction and, in the wound state, has per phase (u, v, w) at least two coil groups (5.1 to 5.4) offset in relation to each other in circumferential direction, each of these coil groups having at least one coil (6, 7) with coil windings, in which method a winding wire under wire tension comes out of a winding needle and is deposited in the winding support in accordance with a predefined winding pattern (Fig. 2 to 7), and specifically with the formation of coils (6, 7), the coil ends of which are connected to each other electrically in an interconnection process in accordance with a predefined interconnection pattern, wherein the winding pattern is designed such that the coil groups (5.1 to 5.4) of each and every phase (u, v, w) are wound continuously with the winding wire in the circumferential direction, without any break in the wire, and wherein in a separation step at the end of the winding process the wire bundle is separated at the particular wire transition between a coil exit of one coil group and a coil entry of an adjacent coil group, and specifically with the formation of coil ends, wherein, for the execution of the winding pattern, winding posts are provided, which are arranged radially outside the longitudinal slots with a radial gap, characterised in that, for the formation of the wire transition, the winding wire is passed from the coil exit of an upstream coil group in the circumferential direction in a loop-like manner radially outwards around at least a first winding post and then radially inwards to the coil entry of an adjacent downstream coil group in the circumferential direction, and that, to increase the loop length of the wire transition, the winding wire passed radially outwards around the first winding post is passed in circumferential direction around at least a second winding post (W8, W9) and then passed back past the first winding post to the coil entry of the adjacent downstream coil group in the circumferential direction.
An insertion head for medical or pharmaceutical applications, the insertion head comprising a housing having an underside which can be positioned on organic tissue and a puncturing device which comprises a puncturing section (7, 14; 13) which is connected to the housing in a pivotal manner and which has a tip, wherein in a puncturing position, the tip protrudes beyond the underside of the housing, in a protected position in which the housing covers the tip, a recess accommodates at least the tip of the puncturing section (7, 14; 13) and in the puncturing position, the puncturing section adopts a position which is tilted relative to the protected position, and in which the puncturing device comprises a connecting structure which is connected to the housing, from which the puncturing section protrudes, and the housing and the connecting structure together form an joint in which the puncturing device is movably connected to the housing, characterized in that for a transfer from the protected position into the puncturing position and/or from the puncturing position into the protected position, the puncturing device comprises a handle part (15a; 15) which is releasably connected to the connecting structure, wherein in the connected condition, the handle protrudes from the connecting structure, and the handle part comprises two outer end regions which can be pressed towards each other against their restoring elasticity, each having a connecting element, wherein the two connecting elements protrude radially inwards from the inner side of the outer end regions and each forms a hook-shaped latching element which is latched with a corresponding counter-element in a recess of the connecting structure.
A method of forming a three-dimensional memory device, comprising: forming at least one lower level dielectric layer over a semiconductor substrate; forming an opening in the at least one lower level dielectric layer located in a scribe region to expose the semiconductor substrate; forming a buried source line (6, 10) over the at least one lower level dielectric layer and over the semiconductor substrate, such that the buried source line (6, 10) is electrically connected to the semiconductor substrate, wherein the buried source line (6, 10) is formed over the at least one lower level dielectric layer and in the opening, such that an electrically conductive connection is formed in the opening to electrically connect the buried source line (6, 10) to the semiconductor substrate in the scribe region; forming an alternating stack of insulating layers and sacrificial material layers over the buried source line (6, 10), wherein the sacrificial material layers are subsequently replaced with, electrically conductive layers; forming memory openings through the alternating stack by etching through the alternating stack after the buried source line (6, 10) is electrically connected to the semiconductor substrate; and forming memory stack structures in the memory openings, wherein each memory stack structure includes a vertical semiconductor channel electrically connected to the buried source line (6, 10) and a memory film laterally surrounding the vertical semiconductor channel. forming at least one lower level dielectric layer over a semiconductor substrate; forming an opening in the at least one lower level dielectric layer located in a scribe region to expose the semiconductor substrate; forming a buried source line (6, 10) over the at least one lower level dielectric layer and over the semiconductor substrate, such that the buried source line (6, 10) is electrically connected to the semiconductor substrate, wherein the buried source line (6, 10) is formed over the at least one lower level dielectric layer and in the opening, such that an electrically conductive connection is formed in the opening to electrically connect the buried source line (6, 10) to the semiconductor substrate in the scribe region; forming an alternating stack of insulating layers and sacrificial material layers over the buried source line (6, 10), wherein the sacrificial material layers are subsequently replaced with, electrically conductive layers; forming memory openings through the alternating stack by etching through the alternating stack after the buried source line (6, 10) is electrically connected to the semiconductor substrate; and forming memory stack structures in the memory openings, wherein each memory stack structure includes a vertical semiconductor channel electrically connected to the buried source line (6, 10) and a memory film laterally surrounding the vertical semiconductor channel.
A steerable introducer comprising a shaft with a proximal end portion, a distal end portion, and a shaft longitudinal axis extending between the proximal end portion and the distal end portion; a steerable distal tip section attached to the distal end portion of the shaft, the steerable distal tip section comprising an articulation support member; a retroflex pull wire (46(d)) extending from the proximal end portion of the shaft to the distal end portion of the shaft, wherein the retroflex pull wire (46(d)) is anchored at a first anchor position on a distal pull ring portion of the articulation support member, the first anchor position being laterally offset from the shaft longitudinal axis in a first direction; at least one tension pull wire (46(a)) extending from the proximal end portion of the shaft to the distal end portion of the shaft, wherein the at least one tension pull wire (46(a)) is anchored at a second anchor position on a proximal pull ring portion of the articulation support member, the second anchor position being (i) laterally offset from the shaft longitudinal axis in a second direction and (ii) angularly offset from the first anchor position on the distal pull ring portion by a first angle, wherein the first direction is different from the second direction; and a handle assembly operably attached to the shaft, the handle assembly comprising at least one stud (64, 72, 74); wherein tension on the retroflex pull wire (46(d)) causes the steerable distal tip section to bend in the first direction; and wherein the tension pull wire (46(a)) is designed to oppose bending bias caused by the retroflex wire (46(d)) in the first direction; and wherein one of the retroflex pull wire (46(d)) or the tension pull wire (46(a)) is anchored to a guitar peg connection, the guitar peg connection located within the stud (64, 72, 74) and operably connected to the stud (64, 72, 74).
Profile made of plastic material to fasten a pane to a frame, comprising a first fastening section that can be placed against the pane and a second fastening section that can be anchored to the frame and at least one clamping section (23, 25) projecting away from the fastening sections (14, 18) and having two free sides that are opposite one another, the clamping section having a catch to clamp a covering strip, characterized in that the catch sticks out on one or both of said sides of the clamping section (23, 25) and in that one part of the catch is made of a more elastic plastic material than the clamping section (23, 25) with the remaining part of the catch.
An illumination insert (10, 110, 210, 310) for an NMR spectrometer, the illumination insert (10, 110, 210, 310) comprising a main body (12, 112, 212, 312) in the form of a tube shaped to receive a sample, the main body (12, 112, 212, 312) comprising: a light guide portion (14, 114, 214, 314) for guiding light from a light source (22, 122, 222); and a diffuser portion (16, 116, 216, 316) for diffusing light received from the light guide portion (14, 114, 214, 314) towards the sample received in the tube. a light guide portion (14, 114, 214, 314) for guiding light from a light source (22, 122, 222); and a diffuser portion (16, 116, 216, 316) for diffusing light received from the light guide portion (14, 114, 214, 314) towards the sample received in the tube.