mhurhangee/patent-ind-claim-en huggingface dataset:
A reactor for production of a micronized silica gel, the reactor comprising: a reactor body with a cavity ; at least one mixer rod within the cavity of the reactor body and rotatable relative to the reactor body about an axis of rotation; wherein the at least one mixer rod comprises at least one mixing extension ; wherein the at least one mixer rod and/or the at least one mixing extension comprises at least one outlet opening for adding a fluid into the reactor body; wherein the at least one outlet opening is fluidly connected to one or more fluid supply via at least one fluid connection , characterized in that the at least one mixing extension is a paddle with or without spoke , wherein the fluid supply extends through the paddle. a reactor body with a cavity ; at least one mixer rod within the cavity of the reactor body and rotatable relative to the reactor body about an axis of rotation; wherein the at least one mixer rod comprises at least one mixing extension ; wherein the at least one mixer rod and/or the at least one mixing extension comprises at least one outlet opening for adding a fluid into the reactor body; wherein the at least one outlet opening is fluidly connected to one or more fluid supply via at least one fluid connection , characterized in that the at least one mixing extension is a paddle with or without spoke , wherein the fluid supply extends through the paddle.
A control circuit for an induction heating device comprising: a D.C. power supply , referenced to a ground connection , configured to supply power to the induction heating device; a switching device configured to be selectively activated to control the induction heating device, the switching device being connected on one end to the ground connection ; a resonant load disposed between the D.C. power supply and the switching device , the resonant load comprising a capacitor and an inductor connected in a parallel configuration; characterized in that at least one rectifying device is disposed in series with the resonant load and the switching device , wherein the switching device is configured to control current from the D.C. power supply through the resonant load . a D.C. power supply , referenced to a ground connection , configured to supply power to the induction heating device; a switching device configured to be selectively activated to control the induction heating device, the switching device being connected on one end to the ground connection ; a resonant load disposed between the D.C. power supply and the switching device , the resonant load comprising a capacitor and an inductor connected in a parallel configuration; characterized in that at least one rectifying device is disposed in series with the resonant load and the switching device , wherein the switching device is configured to control current from the D.C. power supply through the resonant load .
A cleaning apparatus comprising: a chassis ; a main body rotatably connected to the chassis ; a first chamber arranged on the main body ; a second chamber communicated with the first chamber ; a first suction device communicated with the first chamber , the first suction device being configured to provide power to drive external liquid into the first chamber ; and a second suction device communicated with the second chamber , the second suction device being configured to provide power to drive liquid in the first chamber entering the second chamber ; characterized in that , the cleaning apparatus comprises a first housing and a second housing , at least part of the first housing is nested in the second housing ; part of an inner wall of the second housing and part of an outer wall of the first housing define the second chamber ; the first housing defines the first chamber , or partial inner wall of the first housing and partial inner wall of the second housing cooperatively define the first chamber . a chassis ; a main body rotatably connected to the chassis ; a first chamber arranged on the main body ; a second chamber communicated with the first chamber ; a first suction device communicated with the first chamber , the first suction device being configured to provide power to drive external liquid into the first chamber ; and a second suction device communicated with the second chamber , the second suction device being configured to provide power to drive liquid in the first chamber entering the second chamber ; characterized in that , the cleaning apparatus comprises a first housing and a second housing , at least part of the first housing is nested in the second housing ; part of an inner wall of the second housing and part of an outer wall of the first housing define the second chamber ; the first housing defines the first chamber , or partial inner wall of the first housing and partial inner wall of the second housing cooperatively define the first chamber .
A method comprising: performing asynchronous incremental transfers of data of a storage object from a first node to a replicated storage object at a second node; logging, by the first node, metadata operations, executed by the first node upon the storage object, into a metadata log, associated with the first node, during a last asynchronous incremental transfer, wherein sequence numbers are assigned by the first node to the metadata operations based upon an order of the first node executing the metadata operations upon the storage object, and wherein metadata operations are sorted within the metadata log according to the sequence numbers; replicating, by the first node, the metadata operations in the metadata log to the replicated storage object for execution by the second node in an execution order according to the sequence numbers; replicating dirty regions of the storage object, identified by a dirty region log based upon incoming writes targeting the storage object being logged into the dirty region log, to the replicated storage object upon the metadata operations being replicated; and transitioning to a synchronous replication state where incoming operations targeting the storage object are synchronously replicated to the replicated storage object. performing asynchronous incremental transfers of data of a storage object from a first node to a replicated storage object at a second node; logging, by the first node, metadata operations, executed by the first node upon the storage object, into a metadata log, associated with the first node, during a last asynchronous incremental transfer, wherein sequence numbers are assigned by the first node to the metadata operations based upon an order of the first node executing the metadata operations upon the storage object, and wherein metadata operations are sorted within the metadata log according to the sequence numbers; replicating, by the first node, the metadata operations in the metadata log to the replicated storage object for execution by the second node in an execution order according to the sequence numbers; replicating dirty regions of the storage object, identified by a dirty region log based upon incoming writes targeting the storage object being logged into the dirty region log, to the replicated storage object upon the metadata operations being replicated; and transitioning to a synchronous replication state where incoming operations targeting the storage object are synchronously replicated to the replicated storage object.
Fluid circuit for vibration driving, the circuit comprising a multiple-surface cylinder , a first valve which is connected to the first two counteracting piston surfaces of a piston of the multiple-surface cylinder , and a second valve which is connected to a third piston surface , the multiple-surface cylinder having a first piston surface , a second piston surface which is arranged so as to counteract the first piston surface , and a third piston surface which is arranged so as to act identically to the second piston surface , the first valve being a control valve which can be vibrated and is connected to an actuating device for vibration specification; characterized in that the third piston surface is a piston surface which acts so as to extend the piston when pressurized, and in that the second valve is configured to make an extension of the piston possible while the piston is vibrating.
System for electromagnetic interrogation of RFID transponders comprising at least one RFID terminal configured to transmit an interrogation signal at a frequency F1 and comprising at least one RFID device known as a repeater configured to receive the interrogation signal at frequency F1 and repeat it at frequency F2 to at least one RFID transponder configured to transmit a backscattered response signal at frequency F3 in response to the repeated interrogation signal at frequency F2, characterized in that the at least one RFID terminal comprises at least one RFID reader and at least one additional RFID device , the RFID reader being configured to transmit a frequency FO interrogation signal to the additional RFID device and the additional RFID device being configured to perform a frequency transposition from frequency FO to frequency F1, the frequencies FO and F1 being different.
Belt framework for a vehicle seat or a vehicle-seat bench in a vehicle, wherein the belt framework forms an inner load-bearing structure of the vehicle seat or the vehicle-seat bench, wherein the belt framework comprises attachment means for attaching the belt framework to a vehicle structure of the vehicle in the region of a vehicle floor such that, in the attached state of the belt framework , a lower end section of the belt framework is fixable in the region of the vehicle floor , wherein the belt framework comprises a support arrangement with a support member (8-11) for supporting the belt framework against the vehicle structure of the vehicle, wherein the belt framework is in the form of a structure of frame-like design, comprising openings surrounded by interconnected elongate profiles which are oriented parallel to one another and at an angle to one another and which are made up of vertical supports and a transverse strut , wherein the vertical supports are in each case an elongate profile and extend continuously from an upper end of the belt framework as far as a lower end of the belt framework , wherein, in relation to the attached state of the belt framework in the vehicle, the support member (8-11) is, as viewed in a vertical direction, present on the framework at a distance above the lower end section of the belt framework , and wherein the support member (8-11) projects from the belt framework towards the front according to a direction of travel of the vehicle, and the support member (8-11) is designed in such a way that the support member (8-11) is connectable in the region of the vehicle structure of the vehicle which is present above the vehicle floor , characterized in that the support arrangement comprises a flat support member which is connectable to an inner side of a vehicle wall or a load-bearing vehicle pillar .
A method for wireless communication, comprising: identifying sidelink control information, SCI , associated with a sidelink shared channel transmission to be transmitted to one or more receivers, the SCI comprising one or more fields ; computing a cyclic redundancy check, CRC , for the one or more fields within the SCI ; identifying a demodulation reference signal, DMRS, sequence for use in transmitting the sidelink shared channel transmission based at least in part on the computed CRC ; transmitting a sidelink control channel transmission that includes the SCI and the computed CRC to the one or more receivers; and transmitting the sidelink shared channel transmission based at least in part on the identified DMRS sequence. identifying sidelink control information, SCI , associated with a sidelink shared channel transmission to be transmitted to one or more receivers, the SCI comprising one or more fields ; computing a cyclic redundancy check, CRC , for the one or more fields within the SCI ; identifying a demodulation reference signal, DMRS, sequence for use in transmitting the sidelink shared channel transmission based at least in part on the computed CRC ; transmitting a sidelink control channel transmission that includes the SCI and the computed CRC to the one or more receivers; and transmitting the sidelink shared channel transmission based at least in part on the identified DMRS sequence.
Method for manufacturing a stator winding of an electrical machine , in particular an AC generator, wherein the stator winding comprises at least n phase windings , and a plurality of coils with coil sides and coil side connectors are wound directly one after the other for a phase winding , wherein the coils are divided into first coils (82.1) and second coils (82.2), with a forming tool in which grooves (105, 106; 105', 106') are provided which are suitable for receiving the coils , wherein a first coil (82.1) is arranged in a groove (105; 105') of the forming tool and a second coil (82.2) is arranged in another groove (105; 105') of the forming tool , characterized in that n-1 grooves (105, 106; 105', 106') are arranged between the first coil (82.1) and the second coil (82.2), wherein the coils of a phase winding (120, 121. 122, 123, 124) are formed after the winding of windings in such a way that the coil sides of a coil are arranged at least approximately in a plane and two directly adjacent coils (82.1, 82.2) of a phase winding have between them a coil connector (94.1) which is integrally connected to the two directly adjacent coils (82.1, 82.2), wherein the one coil (82.1) and the other coil (82.2) opposite the coil connector (94.).1) are each rotated by an amount of substantially ninety angular degrees, wherein the rotation directions are opposite to each other, wherein one or more phase windings are provided in grooves (105, 106; 105', 106') of a forming tool and wherein one group of the coil sides is displaced relative to another group of the coil sides of the same coil and is thus formed so that n -1 grooves (105, 106; 105', 106') are arranged between both groups of the coil sides .
An organic light emitting diode device comprising a sequence of serially electrically connected organic light emitting diode segments (100; 208; 210; 212), the diode segments comprising two organic light emitting diodes (102; 104; 214; 216), wherein the organic light emitting diodes are vertically stacked with their conducting directions pointing in opposed directions, wherein in the stack the organic light emitting diodes are electrically connected to each other by a common shared electrode (112; 234; 246), and wherein the sequence of segments comprises a given segment and a neighbouring segment , wherein the given segment comprises a first and second organic light emitting diode with a first common shared electrode (112; 234) and first (108; 238) and second (118; 236) unshared electrodes, and a first emissive layer between the first unshared electrode (108; 238) and the common shared electrode (112; 234) and a second emissive layer between the common shared electrode and the second unshared electrode (118; 236), wherein the neighbouring segment comprises a third and fourth organic light emitting diode with a second common shared electrode (112 ;240) and third (108; 244) and fourth (118; 242) unshared electrodes, wherein the given segment is directly serially electrically connected to the neighbouring segment by an electrical connection of the first common shared electrode (112; 234) partially overlapping and contacting the third unshared electrode (108; 244) through a gap in the first emissive layer and by an electrical connection of the first unshared electrode (108; 236) partially overlapping and contacting the second common shared electrode (112; 240) through a gap in the second emissive layer , wherein any unshared electrode (236; 238; 244; 242; 248) comprised in the sequence of segments (208; 210; 212) is electrically connected to maximally one common shared electrode comprised in the sequence of segments.
Gas insufflator applicable in the distension of the colon of a patient, comprising: an electronic control device for at least one valve supplying gas at pressure through a supply conduit to a conduit insertable in the colon of a patient and at least one valve for releasing pressure in said supply conduit ; and a meter of the gas pressure in the insertable supply conduit ; characterized in that said control device comprises: a) - a microprocessor which is programmed with a series of operating configurations, each of said operating configurations corresponding to a respective different degree of cleanness of the patient's colon, for application of gas during the process of distensioning of the colon of a patient; wherein each operating configuration includes: - parameters relative to a "normal" pressure or nominal pressure of the gas being supplied via the insertable conduit , - at least one allowable value of excess pressure of the gas in the insertable conduit and - predetermined periods of time for the automatic releasing of each allowable value of excess pressure in said configuration; b) - a user interface for entering the parameters of each operating configuration of the insufflator during the process of distensioning of the colon; and for the selection and activation of the configuration to be used in the process of distensioning of the colon of each patient. a) - a microprocessor which is programmed with a series of operating configurations, each of said operating configurations corresponding to a respective different degree of cleanness of the patient's colon, for application of gas during the process of distensioning of the colon of a patient; wherein each operating configuration includes: - parameters relative to a "normal" pressure or nominal pressure of the gas being supplied via the insertable conduit , - at least one allowable value of excess pressure of the gas in the insertable conduit and - predetermined periods of time for the automatic releasing of each allowable value of excess pressure in said configuration; - parameters relative to a "normal" pressure or nominal pressure of the gas being supplied via the insertable conduit , - at least one allowable value of excess pressure of the gas in the insertable conduit and - predetermined periods of time for the automatic releasing of each allowable value of excess pressure in said configuration; b) - a user interface for entering the parameters of each operating configuration of the insufflator during the process of distensioning of the colon; and for the selection and activation of the configuration to be used in the process of distensioning of the colon of each patient.
A laminate film comprising at least a base layer, which is water and/or oxygen resistant, and a co-extrusion layer, said co-extrusion layer comprising a tie layer and a contact layer, wherein the contact layer comprises a polymer selected from the group consisting of a cyclic olefin copolymer, a polyamide, or, an ethylene vinyl alcohol, wherein the total loading of the tie layer is in the range of 3-9 g/m 2 and wherein the loading of the contact layer is: loading contact = x ∗ loadingtie, where x is in the range of 1 to 3, more preferred prefered 1.33 to 2.75; wherein the contact layer is the innermost layer and is suitable for facing a composition packaged within the film. loading contact = x ∗ loadingtie, where x is in the range of 1 to 3, more preferred prefered 1.33 to 2.75; wherein the contact layer is the innermost layer and is suitable for facing a composition packaged within the film.
Non-collapsible implantable tissue regeneration guide, consisting of a segment of an umbilical artery or vein whose wall is inverted, characterized in that it is viro-inactivated and freeze-dried.
A camera module, said module comprising: a first Printed Circuit Board (PCB) ; a second Printed Circuit Board (PCB) spaced apart from the first PCB; and an outer shield supporting the first and second PCBs and adapted to shield the first and the second PCBs from electromagnetic interference; characterized in that the first PCB has a first PCB protrusion supported by the outer shield and the second PCB has a second PCB protrusion supported by the outer shield , in that the outer shield comprises a lateral wall, a first through hole formed through the lateral wall, a second through hole formed through the lateral wall directly below the first through hole, a first tension spring bent from the lateral wall and disposed to face the first PCB protrusion passing through the first through hole , and a second tension spring bent from the lateral wall and disposed to face the second PCB protrusion passing through the second through hole, the first tension spring and the second tension spring are monolithically formed with the lateral wall, and in that at least a portion of the first PCB protrusion is disposed in the first through hole , and at least a portion of the second PCB protrusion is disposed in the second through hole. a first Printed Circuit Board (PCB) ; a second Printed Circuit Board (PCB) spaced apart from the first PCB; and an outer shield supporting the first and second PCBs and adapted to shield the first and the second PCBs from electromagnetic interference; characterized in that the first PCB has a first PCB protrusion supported by the outer shield and the second PCB has a second PCB protrusion supported by the outer shield , in that the outer shield comprises a lateral wall, a first through hole formed through the lateral wall, a second through hole formed through the lateral wall directly below the first through hole, a first tension spring bent from the lateral wall and disposed to face the first PCB protrusion passing through the first through hole , and a second tension spring bent from the lateral wall and disposed to face the second PCB protrusion passing through the second through hole, the first tension spring and the second tension spring are monolithically formed with the lateral wall, and in that at least a portion of the first PCB protrusion is disposed in the first through hole , and at least a portion of the second PCB protrusion is disposed in the second through hole.